When Isaac Asmiov was writing I, Robot, the field of robotics was still in its infancy. As he notes in The Complete Robot, as the field began to mature, it started showing signs of conforming to the popular ideas held by science fiction writers about what robotics ought to be. Notions of humanoid robots, the functions that robots would have in domestic settings, even the ethical quandaries that AI ethicists face today were all themes of early sci-fi writers.
The idea of a robot – at least of automata – predates the field of robotics. The idea of an independent automata may have existed as early as the ancient Egyptians Chinese, and Greeks, who attempted to build self-operated machines that resembled animals and humans. Myths of clay golems in Jewish legends and clay giants in Norse legends perpetuated the idea of an artificial being that could mimic the actions of living creatures. A 400 BC myth from Crete spoke of a man of bronze who guarded their island from pirates.
You might think it is strange that a story about technology would start off talking about Wonder Woman. When you realize the technology in question is a lie detector, you might think, “Oh, that’s right. Wonder Woman had the lasso of truth, so this is just a lame association.” You might think that, but you’d be wrong. Turns out, Wonder Woman and real life polygraphs have a much deeper connection; both the polygraph and Wonder Woman share a common creator.
It makes a good story to say that William Marston — an internationally famous psychologist — created the polygraph, but as you might expect it wasn’t the result of a single person’s effort. However, Marston played a key role and also was behind promoting the technology. So, too, even though he is credited as Wonder Woman’s sole creator, the truth is probably a bit more complex.
Can you imagine a near future where your family doctor can effectively prick your finger and test you for a dozen or so types of cancer? Currently, cancer detection is a time-consuming and expensive process. Existing methods of screening for cancer usually involve taking a whole lot of blood and running tests that cost thousands of dollars. But Toshiba has created a cancer-detecting machine that sounds like something straight out of science fiction.
The machine is about the size of a small office copier, and it looks like one, too. But this small machine can do some powerful tricks. Toshiba claims that the machine can detect 13 types of cancer from a single drop of blood with 99% accuracy. What’s more impressive is that it can do this under two hours, as opposed to days or weeks depending on laboratory backlog. Most importantly, they are aiming to do this entire battery of tests for about $180. Ideally, this machine will do everything that current blood cancer detection equipment does, just better, faster, and with fewer resources.
Some of the cancers the machine can test for have been previously difficult to detect, like ovarian, pancreatic, and esophageal cancer. But this machine can screen for all three of these — great news for early detection of these ravaging cancers — as well as breast, prostate, gastric, colon, liver, biliary tract, bladder, lung, brain, and sarcoma. The only catch is that the machine can’t pinpoint which cancer exactly, it only knows if microRNA one or more of the 13 came up.
So, how does it work? Cancer cells secrete certain types of microRNA into the bloodstream that healthy cells don’t. The machine works by assessing the different types of microRNA that show up in the sample drop, and studying their concentrations. Their work builds on that of Toray Industries, who announced earlier this year that they had made a cancer-detection chip based on microRNA accumulation that is 95% accurate. Development of this chip follows on the heels of research that finds testing for microRNA in bloodwork has the potential to detect cancers in earlier stages, and in some cases like for bowel cancer, with a much less invasive testing procedure.
Toshiba, in partnership with the National Cancer Center Research Institute and Tokyo Medical University will conduct a trial of the machine next year. If the trial is successful, they hope to commercialize it soon after.
Renewable energy has long been touted as a major requirement in the fight to stave off the world’s growing climate emergency. Governments have been slow to act, but prices continue to come down and the case for renewables grows stronger by the day.
However, renewables have always struggled around the issue of availability. Solar power only works when the sun is shining, and wind generators only when the wind is blowing. The obvious solution is to create some kind of large, grid-connected battery to store excess energy in off-peak periods, and use it to prop up the grid when renewable outputs are low. These days, that’s actually a viable idea, as South Australia proved in 2017.
A few days ago I was invited to a party. Party invites are always good, and if I can make it to this one I’ll definitely go. It’s from a continental European hackerspace, and it’s for their tenth birthday party. As I spent a while checking ferries and flights it struck me, a lot of the spaces in my sphere are about a decade old. I went to London Hackspace’s 10th earlier in the year, and a host of other British hackerspaces aren’t far behind. Something tells me I’ll be knocking back the Club Mate and listening to EDM of some form at more than one such party in the coming year.
For most of the decade since I found the then-recently-established mailing list of my local hackerspace I’ve spent a lot of my time involved in more than one space. I’ve been a hackerspace director, a member, and many roles in between and I’ve seen them in both good times and bad ones. Perhaps it’s time to sit back and take stock of that decade and ask a few questions about hackerspaces. How have they fared, what state are they in now, and where are they going?
I’ve been told all my life about old-timey Army/Navy surplus stores where you could buy buckets of FT-243 crystals, radio gear, gas masks, and even a Jeep boxed-up in a big wooden crate. Sadly this is no longer the case. Today surplus stores only have contemporary Chinese-made boots, camping gear, and flashlights. They are bitterly disappointing except for one surplus store that I found while on vacation in the Adirondacks: Patriot of Lake George.
There I found a unicorn of historical significance; an un-modified-since-WW2 surplus CBY-46104 receiver with dynamotor. The date of manufacture was early-war, February 1942. This thing was preserved as good as the day it was removed from its F4F Hellcat. No ham has ever laid a soldering iron or a drill bit to it. Could this unit have seen some action in the south Pacific? Imagine the stories it could tell!
My unconventional restoration of this radio followed strict rules so as to minimize the evidence of repair both inside and out yet make this radio perform again as though it came fresh off the assembly line. Let’s see how I did.
Of all known metals, mercury is probably one of the most famous, if only for its lustrous, liquid form at room temperature. Over the centuries, it has been commonly used in a wide variety of applications, including industrial chemical processes, in cosmetics, for telescope mirrors, thermometers, fluorescent lamps, dental fillings, bearings, batteries, switches and most recently in atomic clocks.
Though hardly free from the controversy often surrounding a toxic heavy metal, it’s hard to argue the myriad ways in which mercury has played a positive role in humanity’s technological progress and scientific discoveries. This article will focus both on its historical, current, and possible future uses, as well as the darker side of this fascinating metal.
