Coming five years after the successful debut of its predecessor, Grid 2 has finally drifted its way into the hands of racing gamers. Has its long wait been worth it, or is Codemaster's sequel better off taking a permanent pit stop?
вторник, 23 июля 2013 г.
Drive a Cardboard Tube Train
It's a free performance piece by Fitzrovia Noir running from Wednesday 24 July to Saturday 27 July, from 10am-11.30pm and 12.30pm-2pm, with 4pm matinees on Wednesday and Friday.
"By ‘picking up’ passengers on this people-powered train along the way, the artist-driver will establish imaginary overground routes through public spaces with an innovation that responds to 150 years of underground travel in the capital." says the blurb for the event.
No booking is required, so if the weather's dry (cardboard trains don't run well in downpours) it should be an interesting experience.
Full details are at Fitzrovia Noir's site or on the Facebook page for the event.
понедельник, 22 июля 2013 г.
GUEST INFORMANT: Professor E. Paul Zehr on How Wolverine’s Claws Could Work
Wild about Wolverine — Attaching Adamantium Claws To An X-Man’s Skeleton
Wolverine. One of the most powerful, engaging, and controversial characters in the Marvel Universe. Or in any comics universe, really. He’s got some amazing characteristics, powers and abilities. Chief among those are Wolverine’s amazing adamantium claws. They are unbreakable and sharp as a Samurai’s katana. They were grafted to Wolverine’s skeleton, we are told. But how do they stay in there?
See, I started reading about Wolverine in the mid 1970s, shortly after his debut in The Incredible Hulk. It was around the same time that I became captivated by another technical marvel – The Six Million Dollar Man. Steve Austin didn’t have swords grafted to his arms, but he did have some fancy technology implanted and imbedded inside his body. Again, how did that bionic arm stay on and the bionic stuff in the arm (and elsewhere) stay connected to his skeleton?
Of course all these implants did all kinds of cool stuff. Stuff like cutting and blocking and lifting. And I was (and am) impressed by that for sure. But the nascent scientist in me was amazed at what held it all in. Why didn’t Wolverine’s claws come right off the bones in his forearms when he tried to cut through something? And, for those anatomy aficionados in the crowd, why don’t the claws flip over when his radius move as he turns his wrist? While I can’t provide an answer to the last question, science continues to provide some clues to the former.
Once again it’s tissue engineering and materials science to the rescue. I’m fascinated by these related branches of biomedical engineering. Seriously. If I wasn’t already committed to this whole neuroscience brain-and-behaviour gig I’d be all over biomedical engineering. And some recent discoveries in this field related to bone implants have significant implications for how we might really attach adamantium to bone. After we discover adamantium, of course. (This is your cue, metallurgical engineers. In the words of Stan Lee–Excelsior!)
So, while they weren’t busy discovering adamantium, researchers at M.I.T. (and friends) were busy discovering how to improve the fidelity, stability, and viability of making attachments to bone. And, in one of those amazingly fitting juxtapositions that science and life produce, it involves a process very much akin to and relevant for costumed superheroes–superglue.
It gets even better, though. That’s because they were trying to improve the strength of bone connection to implanted devices especially those made from titanium. The coolest element this side of adamantium and vibranium. Titanium is commonly used in the manufacture of joint replacements, most notably the hip. Titanium also gets extra cool kudos by virtue of being a real element.
What this team discovered was that they could stimulate better growth between bone and titanium by using a special superglue adhesive in rats. This adhesive consisted of multilayers of ceramics and nanolayers of polymers mixed up with protein. This super-slurry mix included signaling molecules that bone would normally detect as bone. Since bone likes to grow back to itself, the basic concept was to trick the body into thinking the titanium implant was bone (or at least bone-like).
This was accomplished by making many, many, ultra-thin layers that then worked like superglue to help get bone cells to grow together. This worked much better than conventional bone cement that has a more brittle and less stable outcome. It’s kind of like really good double-sided tape. Except it’s biological tape that grows both ways and has bone growth proteins (for those keeping score it’s osteoinductive bone morphogenetic protein–2, or BMP-2 for short) that help stimulate this growth.
I love this study. Like much of the best science it’s simple and elegant. Lead author Nisarg Shah and colleagues made all kinds of advanced measures (like regulatory hormone release and stem cell differentiation) on how well implants adhered to bone using this new procedure. But some of the measures were also very simple and included how much force was required to pull the implants out when different adhesives were used. The bottom line is that this new approach seems to be a great improvement on the old bone cement model. This is a very real world concern for joint replacements such as hip and knee in humans.
This study using a rodent model is a fantastic proof of principle that dramatic improvements in the fidelity and stability of implanted devices in humans is on the horizon. Human trials are planned next and will the next test of this approach. We really are on the road that will take us to more stable implants of many devices.
We’re currently shooting from the hip, but can claws really be that far away?
© E. Paul Zehr (2013)
E. Paul Zehr is a frequent guest poster here on extraordinary medical matters. This is his info page. His most recent book is INVENTING IRON MAN: THE POSSIBILITY OF A HUMAN MACHINE.
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четверг, 11 июля 2013 г.
Ware is the real Wario?
Eclectic cast of characters? Check. Wacky games that take advantage of Nintendo's latest hardware? Check. Easy-to-learn multiplayer modes, laugh-out-loud moments, and nose-picking minigame? Check, check, and check. Despite Nintendo's recently-released Game & Wario title possessing these series staples, it feels much different from Wario games of years past, and unfortunately, things haven't changed for the better.
среда, 10 июля 2013 г.
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четверг, 4 июля 2013 г.
270 Tube Stations in one A-Z of the Underground Song
Image by Adham Fisher |
Ben Langham is a London Underground engineer by day and a station music master by night. He collects recordings behind the scenes of the Tube – sometimes from hidden tunnels and disused – and transforms them into songs for his Tunnel Sounds project. I blogged about his unique concept some while back but it also caught the attention of BBC Breakfast and CBS News.
For the 150th anniversary of the London Underground Ben felt this called for something very special. A-Z Of The Underground is a hypnotic one-off piece interchanging hip-hop and electronica featuring Kate Mullins (Puppini Sisters), Jaggi and AFS.
Real sounds recorded on the Tube have been edited and layered together with guitars, bass and punctual production based around the Central Line of rhythmic vocals acknowledging all 270 stations. The song can be downloaded for free, or however much people want to pay for a limited time only
So next time you take the Tube, listen to this audio tour of the tunnels and you might end up with plenty of extra spring in your Stepney.
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