In February 1939, Vogue ran a major feature on the fashions of the future. Inspired by the soon-to-open New York World’s Fair, the magazine asked nine industrial designers to imagine what the people of ‘a far Tomorrow’ might wear and why. (The editors deemed fashion designers too of-the-moment for such speculations.) A mock‑up of each outfit was manufactured and photographed for a lavish nine-page colour spread.
You might have seen some of the results online: an evening dress with a see-through net top and strategically placed swirls of gold braid, for instance, or a baggy men’s jumpsuit with a utility belt and halo antenna. Bloggers periodically rediscover a British newsreel of models demonstrating the outfits while a campy narrator (‘Oh, swish!’) makes laboured jokes. The silly get‑ups are always good for self-satisfied smirks. What dopes those old-time prognosticators were!
The ridicule is unfair. Anticipating climate-controlled interiors, greater nudity, more athleticism, more travel and simpler wardrobes, the designers actually got a lot of trends right. Besides, the mock‑ups don’t reveal what really made the predicted fashions futuristic. Looking only at the pictures, you can’t detect the most prominent technological theme.
‘The important improvements and innovations in clothes for the World of Tomorrow will be in the fabrics themselves,’ declared Raymond Loewy, one of the Vogue contributors. His fellow visionaries agreed. Every single one talked about textile advances. Many of their designs specified yet-to-be-invented materials that could adjust to temperature, change colour or be crushed into suitcases without wrinkling. Without exception, everyone foretelling the ‘World of Tomorrow’ believed that an exciting future meant innovative new fabrics.
They all understood something we’ve largely forgotten: that textiles are technology, more ancient than bronze and as contemporary as nanowires. We hairless apes co-evolved with our apparel. But, to reverse Arthur C Clarke’s adage, any sufficiently familiar technology is indistinguishable from nature. It seems intuitive, obvious – so woven into the fabric of our lives that we take it for granted.
November 27, 2016
October 14, 2016
Every few years, a researcher replicates a security study by littering USB sticks around an organization’s grounds and waiting to see how many people pick them up and plug them in, causing the autorun function to install innocuous malware on their computers. These studies are great for making security professionals feel superior. The researchers get to demonstrate their security expertise and use the results as “teachable moments” for others. “If only everyone was more security aware and had more security training,” they say, “the Internet would be a much safer place.”
Enough of that. The problem isn’t the users: it’s that we’ve designed our computer systems’ security so badly that we demand the user do all of these counterintuitive things. Why can’t users choose easy-to-remember passwords? Why can’t they click on links in emails with wild abandon? Why can’t they plug a USB stick into a computer without facing a myriad of viruses? Why are we trying to fix the user instead of solving the underlying security problem?
Bruce Schneier, “Security Design: Stop Trying to Fix the User”, Schneier on Security, 2016-10-03.
August 16, 2016
Published on 15 Aug 2016
Check out Othais channel C&Rsenal to learn all about the history of WW1 firearms: https://www.youtube.com/c/candrsenal
We partnered with Othais again a few months ago for a livestream showing the Austro-Hungarian weapons of WW1. This is the 2nd episode about the surprising variety of pistols.
May 22, 2016
On the National Interest Blog, James Hasik points out that the idea of the Littoral Combat Ships of the US Navy was successfully implemented more than twenty years ago (and much more economically, too):
In contrast, we know it’s possible to get modularity right, because the Royal Danish Navy has been getting it right since the early 1990s. Way back in 1985, Danyard laid down the Flyvefisken (Flying Fish), the first of a class of 14 patrol vessels. The ships were intended to fight the Warsaw Pact on the Baltic — a sea littoral throughout, with an average depth of 180 feet, and a width nowhere greater than 120 miles. Any navy on its waters might find itself fighting surface ships, diesel submarines, rapidly ingressing aircraft, and sea mines in close order. On the budget of a country of fewer than six million people, the Danes figured that they should maximize the utility of any given ship. That meant standardizing a system of modules for flexible mission assignment. The result was the Stanflex modular payload system.
At 450 tons full load, a Flyvefisken is much smaller than a Freedom (3900 tons) or an Independence (3100 tons). Her complement is much smaller too: 19 to 29, depending on the role. At not more than 15 tons, the Stanflex modules are also smaller than the particular system designed anew for the LCSs. But a Flyvefisken came with four such slots (one forward, three aft), and a range of modules surprisingly broad […]
Swapping modules pier-side requires a few hours and a 15-ton crane. Truing the gun module takes some hours longer. Retraining the crew is another matter, but modular specialists can be swapped too. The concept has had some staying power. The Flyvefiskens served Denmark as recently as 2010. In a commercial vote of confidence, the Lithuanian Navy bought three secondhand, and the Portuguese Navy four (as well as a fifth for spare parts). Over time, the Royal Danish Navy has provided Stanflex slots and modules to all its subsequent ships: the former Niels Juel-class corvettes, the Thetis-class frigates, the Knud Rasmussen-class patrol ships, the well-regarded Absalon-class command-and-support ships, and the new Ivar Huitfeldt-class frigates.
In short, 25 years ago the Danes figured out how a single ship could hunt and kill mines, submarines and surface ships. A small ship can’t do all those things well at once, but that’s a choice in fleet architecture. Whatever we think of the LCS program, we shouldn’t draw the wrong lessons from it. Why is this important? Modularity is economical, as the Danes have long known. Critically, modularity also lends flexibility in recovering from wartime surprise, in that platforms can be readily provided new payloads without starting from scratch. Because on December the 8th, when you need a face-punched plan, you’d rather be building new boxes than new whole new ships.
Wikipedia has this image of the HDMS Iver Huitfeldt:
April 11, 2016
April 4, 2016
December 2, 2015
In the most recent British government SDSR plan, the Royal Navy’s hopes to get 13 new Type 26 frigates have been trimmed down to only eight. Save the Royal Navy speculates on developing a cheaper ship design that could perhaps fill the gap:
Is it really possible to produce a fully effective frigate that is significantly cheaper than a T26? Let us call it the ‘Type 31’, It still requires point defence missiles, anti-ship weaponry, a hangar and small flight deck (even if only for a UAV or Lynx size helicopter), plus a command and control system and suite of sensors. Although the hull size could be reduced, a simpler propulsion system used and the anti-submarine capability eliminated or reduced. You might cut the cost by 30%, and get a general purpose ship but there is still the cost of developing a new design. (At least £200M has already been spent on the T26 design as well as various development ‘blind alleys’ along the way.) A second frigate type will also need its own equipment support logistics and training pipelines.
The desire to create an exportable frigate is laudable but will we not be re-inventing the wheel when there are already cheaper foreign designs that could be licensed or adapted. The highly successful German MEKO design and the Danish Stanflex system are good examples.
If your warship is designed to cope in high-intensity conflict then it will need expensive weapons and sensors. Today’s generation of supersonic anti-ship missiles are truly formidable. Modern surface ships face greater and more diverse threats than ever. To counter this requires good sensors, agile missiles and an array of decoys, backed up by last-ditch close in weapon systems (CIWS). Although the general purpose frigate may not be dedicated to hunting submarines, it will still need a decent sonar to give some hope of prosecuting a submarine or detecting and avoiding torpedo attack. Submarines are also getting more and more stealthy with a growing arsenal of weapons. Without quiet propulsion and sophisticated sonars (i.e. towed arrays) that can detect threats at range and helicopters to attack, the Type 31 could ‘just be another target’.
If your escorts are really going to escort anything eg. an aircraft carrier or merchant shipping, then it needs more than just last-ditch self-defence weapons. A Phalanx CIWS may defend the ship it is mounted on, but it is little use protecting another vessel. If the escort ship can only defend itself, it has very limited use or must be permanently on the offensive. The Sea Ceptor being fitted to the Type 23 and Type 26 frigates has the major advantage over the Sea Wolf it replaces by having more than double the range (around 25Km), significantly extending the size of the protection umbrella over ships being escorted. Frigates are traditionally built to hunt submarines, if our Type 31 has no real ASW capability then it is pretty limited in a wartime role.
November 6, 2015
This post is a nice summary of the Royal Navy’s frigates, destroyers, and cruisers from the Second World War through to the present day:
Before the Second World War the RN was predominantly a “cruiser navy”, holding down a range of global deployments with its 15 heavy and 41 light cruisers. These ships had endurance and combat power at the core of their designs, each could operate alone for extended periods, effectively defend itself in most circumstances and demonstrate the interest or resolve of the government in a particular region. The ensuing World War and the Cold War radically changed the type of warships the RN needed. Instead of cruisers built for endurance and complex warfighting the navy built a profusion of smaller frigates and destroyers, mainly to guard convoys and fight submarines close to the UK and in the North Atlantic. To carry out these tasks the navy could make do with smaller, cheaper, ships with relatively shorter legs and far less ability to act independently in high threat environments. Trade-offs like these were made in order to ensure the navy got enough escorts to protect the convoys which would be vital to Britain’s survival in the event of a war; and to hunt the Soviet ballistic missile submarines that threatened NATO. These were ships designed to act as part of a military system that would defeat the threat posed by hostile submarines. This system also included land based aircraft, anti submarine helicopters, aircraft and helicopter carriers and the enormous US/NATO SOSUS fixed sonar array. The Leander class is probably the most famous example of these sort of light frigates, operated by the RN into the early 1990s. When the immediate and pressing threat from submarines operating in the North Atlantic, be they German or Soviet, ceased to exist so the naval forces the UK had constructed to defeat them also fell by the wayside. These ships were, broadly speaking, a product of their time and a deviation from the much older structure that had served the RN well for centuries. This structure consisted of a core “battle fleet”, made up of capital ships; mainly there to act as a deterrent, supported by powerful forward deployed cruisers that conducted most of the day to day activity.
By modern standards almost all of the cheap and numerous frigates and destroyers of the past, even the excellent Leanders, would be classed as lightly armed corvettes. The simple fact was that these cheap and numerous ships sacrificed a lot of capability in order to achieve the affordability necessary to build them in numbers. They were still recognisable as frigates built in the convoy escort mold. Similarly the Type 42 anti-aircraft warfare destroyers, in service from the mid-1970s, were also a design that compromised range and armament for numbers. At only 3500 tonnes the Batch 1 Type 42s were clearly a very light and economical design. When compared with their American counterparts, the 8000 tonne Spruance class, it’s clear that these ships sacrificed range and armament for economy and numbers. Both the Leanders and the Type 42s are recognisable as frigates and destroyers, light warships designed to act in groups and alongside other warships, auxiliaries and aircraft to be effective in combat. The closest the RN came to “cruiser” designs during the Cold War were the eight County Class missile destroyers commissioned in the early 1960s and HMS Bristol, the sole survivor of the pre-1968 carrier escort programme. While these destroyer classes were cruiser-like in some aspects, they carried a far more comprehensive armament and had a greater range (in terms of fuel) than their contemporaries, they lacked the self-sustainment ability, protection, survivability and range of “true” cruisers. While Bristol was initially labelled a light cruiser by Jane’s, the Royal Navy always saw her for what she was: an oversize missile destroyer with the similar limitations to the navy’s other destroyers.
With the later Type 22 and 23 frigates the RN moved to fewer, more individually capable, platforms. This change was partly necessitated by the introduction of a new generation of bigger towed array sonars which required larger ships to operate effectively. Despite their greatly improved self defence ability, achieved by fitting the Sea Wolf point defence missile system, these ships were still designed to be expendable escorts and lacked the endurance of cruisers. That said, these two classes signalled the start of the navy’s shift from a fleet of numerous, small and cheap escorts to fewer, larger ships capable of independent operations in a high threat environment.
May 13, 2015
Published on 24 Apr 2015
Buckminster Fuller’s 1933 foray into automobiles gave us the Dymaxion Car, and enthusiast Jeff Lane has one of the only working replicas in the world. WSJ‘s Rumble Seat columnist Dan Neil takes the road zeppelin for a spin…or should we say wobble?
H/T to Open Culture for the link … and do at least check out the over-the-top trailer for The Last Dymaxion on Facebook.
December 27, 2014
Uploaded on 30 Nov 2011
New York Central Railroad Educational Documentary from 1948 that gives an overview of railroad signals and related safe working infrastructure used by trains, as well as the ongoing improvements to the signalling systems due to technological advances.
The film was released as part of the NYC’s “Running the Railroad” series, and features many examples of different signalling systems in use by the New York Central Railroad, as well as lots of scenes of passenger and freight trains. .
December 13, 2014
This bow is made from a pair of Fischer downhill skis. It pulls 58# at @ 28″. The riser is made from walnut and pecan and is coated in a satin polyurethane finish. The string is made from paracord with bowlines. This will be replaced by a dacron string when I get the time to make one.
The takedown shown in these photos is a followup to the instructable I wrote earlier this year. I have received many questions asking “just how powerful a bow can you make from skis?”. This takedown bow shoots nearly as fast as my fiberglass/wood laminate recurves. Once I get my hands on a chronograph I will actually provide some numbers. But based on target penetration and my experience I’d have to say that it performs quite comparably.
November 12, 2014
Scott Adams relates his quasi-religious experience with the latest iPhone:
The experience of getting the iPhone 6 Plus was like getting a puppy. From my first touch of the sleek, sexy miracle of technology I was hooked. I loved it before I even charged it up.
It was large in my hand, and slippery to hold, but I didn’t mind. That would be like complaining that my newborn baby was too heavy. This phone is pure art and emotion frozen in a design genius so subtle that competitors probably can’t even duplicate it. It was pure beauty. Sometimes I found myself just staring at it on the desk because I loved it so. Oh, and it works well too.
But I needed a case. I tried to imagine my anguish if I accidentally dropped this new member of my family and cracked it. I needed protection.
So I went to the Verizon store and bought the only cover they had left that doesn’t look like a six-year old girl’s bedroom wall. The color of my new case could best be described as Colonoscopy Brown. It is deeply disturbing. But because I love my iPhone 6 Plus, and want to keep it safe, I put it on.
Now my phone is not so much a marvel of modern design. Nor would I say it is nourishing my soul with beauty and truth the way it did when naked.
Now it just looks like a Picasso that three hundred homeless people pooped on. You know there’s something good under there but it is hard to care. Now when I see my hideous phone on my desk I sometimes think I can hear Siri beg me “Look away! Look away!”
Beauty needs to be temporary to be appreciated. I think those magnificent bastards at Apple know that. I think they made the case slippery by design. They want you to know that if you keep your phone selfishly naked, and try to hoard the beauty that is designed to be temporary, that phone will respond by slipping out of your hand and flying to its crackly death on a sidewalk.
November 10, 2014
James R. Holmes makes the case that the latest class of US Navy destroyers are already obsolete:
Hie thee hence, sea fighters, to peruse Information Dissemination‘s take on the U.S. Navy’s Zumwalt-class destroyer. Pseudo-pseudonymous pundit “Lazarus” gives a nifty profile of the newfangled vessel. That’s worth your time in itself. Though not in so many words, moreover, he depicts the attention-grabbing DDG-1000 stories of recent weeks and months as a red herring. Sure, Zumwalt features a “tumblehome” hull that makes the ship look like the second coming of USS Monitor. (This is not a compliment.) The hull tapers where it should flare and flares where it should taper. Zounds!
Yet more than cosmetics occasions commentary. Some navy-watchers voice concern about tumblehome hulls’ seakeeping ability in rough waters. Others question their ability to remain buoyant and stable after suffering mishaps or battle damage. That’s a worry in a “minimum manned” ship that relies on automated damage control. (The very idea of automated firefighting and flooding control, and sparsely populated fire parties, sits poorly with this former fire marshal.) In any event, time will tell whether the naval architects got it right.
Even if problems do come to light, Zumwalt would be far from the first fighting ship to undergo modifications to remedy problems baked into her design. The flattop USS Midway, for example, underwent repeated change over her long life — including to correct such maladies. Plus ça change.
Zumwalt‘s secondary armament has made headlines as well. The navy recently opted to substitute lesser-caliber 30-mm guns for the 57-mm guns originally envisioned to empower the ship to duel small boats and light surface combatants. The smaller mount evidently meets performance parameters for close-in engagements that its bigger counterpart misses. This too is a controversy that, in all likelihood, will be settled once sea trials put the ship through her paces. Tempest, meet teapot.
November 1, 2014
Virginia Postrel looks at the current state of adoption for 3D printing:
Contrary to what the names suggest, a desktop 3-D printer today isn’t analogous to a 2-D desktop printer in the 1980s. When computer printers spread, after all, they didn’t replace printing plants. They replaced typewriters. As costs dropped and graphics software became easy to use, people found all sorts of new uses for desktop printing. But the technology originally caught on by offering a better way to do something familiar.
Instead of thinking of 3-D printers as printers, it makes more sense to think of them as cameras: a way for non-artists to create images. Before it went digital, photography too required a whole ecosystem, with cameras, film, developing and so on. George Eastman created a vast amateur market by making the part of photography people cared about — capturing pictures — easy, while hiding the technically demanding steps. Kodak handled the film and development, proclaiming, “You Press the Button, We Do the Rest.”
The critical insight is that the image is what’s exciting, not the machine that generates it.
“What 3-D printers are really producing, is demand for design. These machines, this industry, signal a huge, growing appetite for access to 3-D design,” said Cosmo Wenman, who’s been creating 3-D scans of classical sculptures and releasing the files on sites like Makerbot’s Thingiverse. (Wenman, whose early efforts I wrote about here in 2011, has received backing from Autodesk.) Thanks to his scans, you can now make your own “Venus de Milo” or “Winged Victory.”
October 12, 2014
Ben Makuch looks at the severe environment of Canada’s Arctic and how UAV design is constrained by those conditions:
“A lot of these systems — UAVs particularly, and rotor-wing (that is to say helicopters or quadrotors) — are even more sensitive. They require a good understanding of what they’re heading in. And by heading, that’s kind of the direction you’re facing,” said Monckton.
And because of those difficulties, finding headings for aerial drones in the Arctic requires stronger GPS systems to establish a “line segment” of locational data, ripped, according to Monckton, from a “crown” of satellites hovering on top of Earth.
In terms of weather conditions, the extreme sub-zero temperatures is devastating on a UAV when you mix in fog or clouds. While crisp cool air with clear skies provides excellent flying conditions, once you mix in ice fog, it becomes a major risk to small UAVs.
“The biggest risk in the Arctic is structural icing,” said Monckton who explained that water in the clouds is so cool that when “you strike it, it actually crystallizes on contact.”
Unsurprisingly, the wings of a drone being enveloped in ice presents “a major impediment to general unmanned air operations,” Monckton said. In part, because “UAVs are too small to carry standard deicing equipment [as used] on a commercial aircraft. So that’s a major problem.”
For the project, DRDC took a previously manned helicopter and modified it into an unmanned vehicle. They had help from Calgary-based Meggit Canada for the project, a defence and security contractor also responsible for this armed training hexicopter.
As for ground drones, or unmanned ground vehicles, Monckton said weather and temperature were an afterthought. The real challenge, was the actual terrain.
“The arctic has a really peculiar surface,” said Monckton, adding that the high Arctic offers mostly marshlands, rocky outcrops, or elevated permafrost that produces spiky formations. “So the UGV was kind of going between easy riding on sloppy stuff and then getting pounded to pieces on the rough frost boils.”