From tin men to Terminator: Robots reviewed

Posted on behalf of Celeste Biever

Animatronic baby, John Nolan Studio

Animatronic baby, John Nolan Studio.{credit}Plastiques Photography, courtesy of the Science Museum{/credit}

The baby’s skin looks soft and its hair downy as it blinks and stretches out its arms. Then I spot the plug and mass of wires protruding from its back.

Brainchild of London-based John Nolan Studio, the animatronic infant is a fitting start to the blockbuster Robots exhibition at London’s Science Museum. Its impressively comprehensive array of automatons is a reminder both of machine-like qualities in people, and of the challenges of imitating humans in mechanical form.

Historical automata crowd the first section, ‘Marvel’. A small, hand-carved mechanical monk from the 1560s was crafted to walk and beat its breast in contrition. Is this really a robot? Yes, says chief curator Ben Russell, who has long pondered this question: “A robot is a machine that looks life-like or behaves in life-like ways.” This summary proved a tough but useful curatorial filter, he says.

Clockwork 'Silver Swan', John Joseph Merlin, 1773.

Clockwork ‘Silver Swan’, John Joseph Merlin, 1773.{credit}The Board of Trustees of the Science Museum{/credit}

Another highlight here is the Silver Swan, a life-sized clockwork bird on a glass pool crafted in 1773 by Belgian inventor and instrument-maker John Joseph Merlin, whose work inspired Charles Babbage. (The automaton is on loan from the Bowes Museum in county Durham, northern England.) In his 1869 travelogue The Innocents Abroad, American writer Mark Twain noted the avian wonder ‘swimming’ as “comfortably and unconcernedly as if he had been born in a morass instead of a jeweller’s shop”. The lifelike movements of its serpentine neck still impress – but visitors beware: to preserve the delicate machine, it will only play at certain times.

Classic twentieth-century robots Sitting Robot, Cygan, George and Eric (left to right).

Classic twentieth-century robots Sitting Robot, Cygan, George and Eric (left to right).{credit}Plastiques Photography, courtesy of the Science Museum.{/credit}

A clutch of robots classiques includes an impressive collection of dumb but engaging tin-giants dating back to the 1920s. Eric is arguably the star. The replica we see was commissioned for the exhibition and paid for by a Kickstarter campaign. Amateur engineer William Richards and mechanic Alan Reffell built the original Eric in 1928 for the annual Society of Model Engineers exhibition in London, where it a gave a speech as a stand-in for the Duke of York. Its feet bolted to a 12-volt electric motor, Eric could also stand, sit down and move its arms.

As I gaze at a Terminator from 2009 film Terminator Salvation, I’m reminded of how popular culture, as well as science and engineering, shaped the modern concept of a robot. The intimidating android “had to be there”, says Russell. “This is what people think a robot is like.”  Another delight for aficionados is a 1923 first-edition copy of Czech writer Karel Čapek’s play R.U.R. (Rossum’s Universal Robots), which coined the word ‘robot’.

ECCEROBOT, Rob Knight and Owen Holland, 2004-2011.

ECCEROBOT, Rob Knight and Owen Holland, 2004-2011.{credit}Plastiques Photography, courtesy of the Science Museum.{/credit}

It’s one thing to dream, quite another to construct. The reality check is a gaggle of bots from a range of top labs — experiments shedding light on what it means to be human. Here are multiple versions of the life-sized ECCEROBOT (Embodied Cognition in a Compliantly Engineered Robot), each a skeletal display of tendons and bones. Built by robotics engineer Rob Knight, cognitive roboticist Owen Holland and the ECCEROBOT Consortium between 2004 and 2011, the series explores embodied cognition: how the structure of the human body shapes the evolution of intelligence and consciousness.

Juxtaposing several attempts at creating bipeds, this section also showcases the joy of tinkering. Honda’s well-resourced P2, unveiled in 1996, was the first full-bodied robot to walk on two legs. It stands next to the Shadow Biped — a pair of legs snaked through with wires and gauges, developed by inventor Richard Greenhill and other members of the Shadow Robot Project Group in a London attic from 1987 to 1997. (It managed a few wobbling steps.) The group evolved into the Shadow Robot Company, makers of the dexterous robotic hand on display.

Nexi, Cynthia Breazeal, 2008.

Nexi, Cynthia Breazeal, 2008.{credit}The Board of Trustees of the Science Museum.{/credit}

The show’s research chops are also evident in the inclusion of Cog, the Massachusetts Institute of Technology project led by robotics pioneer Rodney Brooks that ended in 2003. The exhibit only features Cog’s head – a mess of wires and metal. While it’s not visually arresting, I was thrilled to see Cog: it was built to address the fascinating, once radical, question of whether human level intelligence could emerge from physical interactions with the environment, without any higher-level programming.

The emerging field of human-robot interaction gets a look-in with Inkha, built by Matthew Walker and Peter Longyear at King’s College London. A pair of bulbous eyes and rubbery lips attached to a metal frame, it served as a receptionist at King’s between 2003 and 2014. And the freakish, blue-eyed Nexi was built in 2008 by human-robot interaction pioneer Cynthia Breazeal of MIT. Through its ability to carefully control movements such as face-touching, Nexi was used to study the role of non-verbal communication.

Robot child Kodomoroid, Hiroshi Ishiguro Laboratories.

Robot child Kodomoroid, Hiroshi Ishiguro Laboratories.{credit}Plastiques Photography, courtesy of the Science Museum.{/credit}

Today, of course, robots have escaped the lab, showing up in factories, homes and even clinics.  As I trek through the last room, a corridor lined with a range of humanoids already out in the real world, I ponder how robots will evolve next. Will they become ever more realistic, like the alarmingly life-like robot child Kodomoroid? Its creators at Hiroshi Ishiguro Laboratories in Japan have used such ‘geminoids’ — android ‘twins’ of real individuals — to monitor reactions when compared with the human originals. Robo-toddler Kaspar, by contrast, makes a virtue of robotic limitations. Its creators at the University of Hertfordshire are examining how children with autism,  who can be overwhelmed by diverse facial expressions, react to Kaspar’s much simpler, carefully controlled mannerisms.

This is a timely show, in a society now grappling with the implications of the robot invasion, enabled by speedily evolving, hyper-sophisticated machines. It does a beautiful job of demonstrating robotics’ embarrassment of riches and how humanity got here, powered at first by belief, then dreams and most recently hardcore research and engineering. The question that scientists, engineers, consumers and industry now have to answer is: where do we point this formidable engine?

Celeste Biever is Nature’s chief news and features editor. She tweets at @celestebiever.

Robots runs at London’s Science Museum from 8 February to 3 September.

 

For Nature’s full coverage of science in culture, visit www.nature.com/news/booksandarts.

Waltzing for science

Posted on behalf of Quirin Schiermeier

The Vienna Science Ball 2017, in the city's Town Hall.

The Vienna Ball of Sciences 2017, in the City Hall.{credit}©PID/Christian Jobst{/credit}

Around midnight on 28 January, hundreds of couples lined up in the splendid ballroom of the Vienna City Hall for the quadrilles — and the Vienna Ball of Sciences became tangibly interdisciplinary. Students, scientists and scholars of myriad fields whose paths would scarcely cross in daily academic life moved gracefully to the waltzes of the younger Johann Strauss. Laughter filled the air as rows of elegantly clad dancers performed (in reasonably perfect composure) the bows and figures of the traditional courtly dance.

Balls are the very hallmark of Vienna’s social life and an essential part of its cultural identity. Some 450 take place during January and February. Many trades and professions – from hunters to physicians – proudly hold their own in splendid venues such as the Hofburg, Vienna’s imperial palace. However, the city’s growing and increasingly international research community, currently numbering about 220,000 people, had long been standing aloof from the parallel world of its ball society.

That changed in 2015 when Oliver Lehmann and Alexander Van der Bellen launched an annual Vienna science ball. “We wanted to set a counterpoint to ultra-conservative student corps and the academic ball they organize,” says Van der Bellen, the former Green politician and economist who last week took office as Austria’s new president. “Vienna’s liberal science community absolutely deserves a wonderful ball of their own, we thought.”

Promoting diversity

Lehmann, a public relation expert with the Institute of Science and Technology (IST Austria) in Klosterneuburg near Vienna, says that Vienna’s balls tend to be high-level political affairs that have in the past drawn violent protests from some on the extreme left, who deem them elitist. But the science ball promotes diversity, reaching out to students and researchers from all academic disciplines and institutions. Like Berlin’s Falling Walls conference, held every November to commemorate the divided German city’s 1989 reunification, it is a clever attempt to associate a big city’s science base with its most distinguished cultural characteristics.

And the sold-out event was ample proof that the organizers had hit a nerve. The 3,000-strong crowd happily waltzed, tangoed and foxtrotted the night away in environs that subtly alluded to science. Light-emitting diodes illuminated dancers’ moves to stunning effect; tables were decorated with supposedly aphrodisiac plants (pomegranate, celery, orchids) selected by botanists at the University of Vienna’s department of pharmacognosy; and young artists with Vienna’s Academy of Fine Arts had covered the walls with expressive paintings.

Bundespräsident Van der Bellen, Bürgermeister Häupl und Stadtrat Mailath-Pokorny eröffnen den Ball der Wiener Wissenschaft

Austrian president Alexander Van der Bellen opens the Vienna science Ball. In the background are Oliver Lehmann of the Institute of Science and Technology (right), and Wolfgang Ortner, the conductor of the ball’s orchestra (left).{credit}©PID/Christian Jobst{/credit}

Those more inclined to test the laws of probability theory were offered a chance to do so at two roulette wheels. On large screens, researchers with the Ludwig Boltzmann Institute of Archaeological Prospection and Virtual Archaeology displayed the results of their geomagnetic prospection and ground-penetrating radar measurements of Stonehenge. And at the tables, animated discussions ranged over science and the arts. How often does it happen in academe that a pensive researcher on African cultural identity exchanges ideas with a tipsy quantum physicist about Arthur Schopenhauer’s philosophy of pessimism?

Computer scientist Thomas Henzinger, director of IST Austria and a member of the ball’s honorary committee, is not someone inclined to indulge in rambling sophism. He says he doesn’t even care much for ballroom entertainment, but he does agree that the ball raises Vienna’s profile as a cosmopolitan city of science. Vienna and Austria, he says, benefit a lot from the influx of talent from Eastern Europe and other countries. At the IST, launched in 2009, less than a fifth of 600 staff — and only 5% of postdocs — are Austrian, he says.

Isn’t a ball a bit jingoistic for such a global profession? “Nationalism is the very last thing I support,” Van der Bellen told me, speculating that Europe could soon become a haven for US scientists and intellectuals escaping the Trump administration. “I do appeal to all young scientists, here and around the world, to resist chauvinism and stand up for liberal values.”

As the scientists had a ball, anxiety about world politics became distant concerns — for a few hours. Some had travelled from as far as China to join the fun; many pledged to come again. Tickets for next year’s Science Ball go on sale on 15 November.

 Quirin Schiermeier is senior reporter for Nature in Munich. He tweets at @tomboy180463.

 

For Nature’s full coverage of science in culture, visit www.nature.com/news/booksandarts.

Tracking the propulsive power of science books

station-839208_960_720What makes a science tome so audacious, original and right that it kickstarts a life’s journey, propelling someone to the bench or field? Science writer Ann Finkbeiner (of The Last Word on Nothing) has written about that for A View from the Bridge. And when Academic Book Week fired up on 23 January, I started musing anew about encounters with remarkable books.

Academic Book Week celebrates “the diversity, innovation and influence of academic books” as forces shaping modern Britain. The popular vote went to economist John Maynard Keynes‘s 1936 The General Theory of Employment, Interest and Money. But despite the inclusion of works by Stephen Hawking, Richard Dawkins and James Watson in the ABW top 20, I saw a relative dearth of science in there. (No mention, for instance, of Charles Darwin’s On the Origin of Species or D’Arcy Thompson’s On Growth and Form.) Books that reveal the complexities of a culture to itself are essential. Books that unpick the complexities of nature seem as key.

So we asked readers to vote for their top science read – broadening the discussion by including any in the English language. Science writer David Quammen, for instance, cites David Hull’s 1988 Science as a Process and Horace Judson’s The Eighth Day of Creation (1979). Dawkins and Hawking are a noted presence, while Carl Sagan looms largest. Here’s a sampling:

12346789101112131415161718

A straw poll among colleagues yielded more rich pickings. US news editor Lauren Morello recalls reading The New York Times Guide to the Return of Halley’s Comet (1985) cover to cover at age seven, while James Gleick’s 1992 Genius: The Life and Science of Richard Feynman proved a beacon in high school. Podcast editor Kerri Smith extols Oliver Sacks‘s 1985 The Man Who Mistook His Wife for a Hat, “which made science feel like storytelling and was so much more pleasurable to read than the classic but quite dense pop science I had read before”. She notes further: “Maybe not a causal relationship, but I did a MSc in neuroscience a couple of years later.”

Nature reporters reported no less galvanising reads. Heidi Ledford recalls encountering Cosmos early on – and “how excited I felt whenever I picked it up”. As a teenager, Lizzie Gibney found that Hawking’s A Brief History of Time “really made me think science. The Time and Space of Uncle Albert had a huge influence too.” Ewen Callaway names thrilleresque 1995 The Hot Zone – Richard Preston’s non-fiction tome on viral haemorrhagic fever – as key. And Amy Maxmen opts for E.O. Wilson’s 1994 Naturalist, which she writes “made me get serious about bug collecting in high school, which resulted in a 10-year detour in science”.

What science classic pried open the door to your life in science? We’d love to know: answers either to the comments on A View from the Bridge, or to @naturenews with the hashtag #AcBookWeek.

 

For Nature’s full coverage of science in culture, visit www.nature.com/news/booksandarts.

Thomas Bayrle: mesmerising machines

Posted on behalf of Lisa Vincenz-Donnelly

Rosenkranz (mixed media: VW engine, electric drive, sound), 2009.

Rosenkranz (mixed media: VW engine, electric drive, sound), 2009.{credit}Private Collection, Vienna. Photo: Werner Kaligofsky, VG Bild-Kunst, Bonn 2016{/credit}

In the 1950s, when the German Pop Art pioneer Thomas Bayrle first trained as a weaver, he says he was “put into a state of trance by the loud and monotonous noise of the machines — until they began to sing”. His more recent artworks, currently on display at an exhibition of wall pieces, light projections, videos and electronically driven sculptures at the Kunstbau gallery in Munich, have a similar mesmeric effect. The ‘continuous-loop’ animations and smoothly moving sculptures, accompanied by monotonous sounds, are hypnotic portrayals of mass production and the complexities of society.

In 1958, Bayrle moved on from textiles to become one of Germany’s most important post-war artists. Since the 1970s, he has famously engaged with subjects such as motorways, car and airplane engines and the nexus of humans and technology in a range of media — including silkscreen, lithography and etching – and in works such as Flugzeug (not in the exhibition). This huge collage of an airplane is made up of many thousands of depictions of airplanes. Bayrle was among the first in Germany to adopt Pop Art in the 1960s, and to create computer-generated art in the 1970s.

Thomas Bayrle with Autobahn, 2016.

Thomas Bayrle with Autobahn, 2016.{credit}Kunstbau gallery, Munich/VG Bild-Kunst, Bonn{/credit}

The unusually long Kunstbau gallery space is located at a metro station, in the underground mezzanine storey directly above the tracks. Bayrle, now 79, was inspired by the “architectural brutality” of the space to create an immense wall sculpture 30 metres long, Autobahn (which he describes as his ‘last Autobahn’ — true to his love of repetition, he has created many similar sculptures). It’s a massive grey construction of intertwined angular loops, echoing the never-ending movement of traffic. Bayrle sees motorways as the centre of humanity’s gigantic cycle of production, distribution and consumption — a dynamic that has now evolved into the main surveillance body of human mobility, the information highway.

One of the most impressive pieces, a 16-millimetre film of montages of black and white stills, Autobahnkopf, appears at first glance to be an image of an anatomical human head turning its face in all directions. A closer look reveals the image as constructed from many loops of footage of busy highways.

Monstranz, 2010 (mixed media: radial engine, electric drive, sound)

Monstranz, 2010 (mixed media: radial engine, electric drive, sound), with Autobahn (mixed media) in the background.{credit}© Thomas Bayrle and Museum Ludwig, Köln VG Bild-Kunst, Bonn 2016.{/credit}

Most compelling are sculptures created from scrap automobile parts, such as engines. Bayrle restores their working parts, exposing their solemn beauty in action, and supplies each with a unique soundtrack mixing the sound of the original machine with recordings of prayer groups. Bayrle first noticed parallels between religion and machines during his childhood. He used to live near a church, where a group of housewives stopped every Thursday to rattle off rosaries in a monotonous, yet powerful, manner. To Bayre, the rosary is like a type of machine – one that you power yourself as you work your way through its beads. And as he has noted, Tibetan prayer wheels mesh religion with machinery. In Monstranz, a nine-cylinder radial engine that once powered various utility aircrafts rotates to heavy hissing and grinding noises, merged with the recording of a church service from Cologne Cathedral. A Citroën car engine is matched to the chants of French prayer groups. The words blend into a multi-layered, repetitive, soothing soundtrack. In some pieces, the machines take on a life of their own: a Vespa engine seems to sing; a pair of windscreen wipers appears to wave.

In these extraordinary works, Bayrle captures the never-ending circle of production, distribution and consumption. As individuals, we come together in multitudes to form this massive system – like the threads that make up a fabric.

Lisa Vincenz-Donnelly is an editorial intern at Nature in Munich. She studied biochemistry in Galway, Ireland, and completed a doctoral degree at the Max-Planck-Institute of Biochemistry in Martinsried near Munich.  

 Thomas Bayrle runs at the Kunstbau, Munich to 5 March. A concurrent show, Thomas Bayrle, runs at the Institute of Contemporary Art, Miami, Florida, to 26 March.

 

For Nature’s full coverage of science in culture, visit www.nature.com/news/booksandarts.

Picturing science: top 5 illustrated books

A study from Alexander von Humboldt's detailed expedition notebooks. This cross-sectional study of Chimborazo in Ecuador (1805) shows flora growing at different altitudes.

Alexander von Humboldt kept immensely detailed expedition notebooks. This cross-sectional study of Chimborazo in Ecuador (1805), derived from a sketch, shows flora growing at different altitudes on the volcano.{credit}akg-images. Reproduced in Explorers’ Sketchbooks. {/credit}

We live in illustrated times — a golden age for science graphics, data visualisation and scientific illustration generally. Photography has become positively eye-popping — from the cosmoscapes of Hubble to the Earthly delights of nature photography and photo archives the world over. And luckily for us, this gargantuan trove is being steadily funnelled into science-oriented coffee-table books.

I confess that in early in 2016 I was hanging around waiting for one. Then, like a fleet of barouches, several came along at once. In them I’ve found aesthetic thrills, deep insights and unexpected hilarity. Here are five of the best.

xxx turtle in xxx.

A green turtle (Chelonia mydas).{credit}Alex Mustard, in Secrets of the Sea.{/credit}

Animals proved a draw  — archival menageries and photo-surveys playing on our unquenchable fascination with other species. Secrets of the Seas: A Journey into the Heart of the Oceans (Bloomsbury), with text by marine biologist Callum Roberts and photographs by underwater adept Alex Mustard, explores the wild beneath the waves. It begins in the Coral Triangle, where 4 million square kilometres of tropical ocean support three-quarters of the world’s corals and 2,500 fish species. One denizen, the paddle-flap scorpionfish Rhinopias eschmeyeri of Indonesia, is a cartoon in bubble-gum pink. Beauties throng here too, from the sinuous ballets of California sealions Zalophus californianus to silver blizzards of shoaling fish — mackerel to barracuda.

Robert Hooke's 1665 drawing of a louse on a human hair, from Micrographia.

Robert Hooke’s 1665 engraving of a louse on a human hair, from Micrographia.{credit}National Library of Wales. Reproduced in The Paper Zoo.{/credit}

Roberts’s urgent text underlines the state of play for today’s beleaguered marine animals. The Paper Zoo focuses firmly on the planet’s biodiverse past, rummaging through the British Library’s wealth of natural history illustrations spanning 500 years. Science historian Charlotte Sleigh leads us through an ark of beasts from the exotic to the ‘paradoxical’, limned by greats of scientific illustration. Robert Hooke’s eighteenth-century microscopic menagerie of drone flies and lice jostle with natural historian John Ray’s Dürer-like renderings of fish from the 1680s. The nineteenth-century art ranges further South; my favourite is an anonymous double portrait of langurs (one black, one white) staring sagely out in mid-snack.

By necessity, many explorers were illustrators manqué — before the advent of reliable cameras, sketches were essential records of the geological, zoological and meteorological wonders they encountered. Explorers’ Sketchbooks: the Art of Discovery and Adventure (Thames & Hudson), by cultural historians Huw Lewis-Jones and Kari Herbert, is a mesmerising multiverse of them. Facsimile pages from the notebooks of 70 ‘terranauts’ give a stunning immediacy to distant time and space. Edward Wilson’s dreamlike evocations of the Antarctic, Maria Sibylla Merian’s caiman chomping on a false coral snake, the lava streams on Vesuvius mapped by John Auldjo, Alexander von Humboldt’s bold cross-section of Chimborazo — every turn of the page is a subtle thrill.

A phrenological bust.

A phrenological bust.{credit}Wellcome Library, London. Pictured in This Way Madness Lies.{/credit}

There are outer, and inner, journeys. Mike Jay’s This Way Madness Lies (Thames & Hudson) peers into the history of mental illness and its treatment as ‘madhouses’ gradually morphed into mental hospitals. (The book accompanies the Wellcome Collection show Bedlam.) Many of the more than 600 images, gleaned from European and US archives, are harrowing portraits of marginalised people further marginalised by experimental treatments ranging from the bizarrely exploitative to the ineffectual. Yet, as Jay notes, there were countercurrents. Franco Basaglia’s 1960s-70s psychiatric revolution in Italy sought to reinstate patient autonomy and social integration. Community refuges from Geel, Belgium, to Gould Farm, Massachusetts, offer treatment based on acceptance and occupation. And the science advances — even as depression and psychoses remain very much with us. A gallery features astounding art by the diagnosed, from proto-surrealist and Victorian parricide Richard Dadd to Adolf Wölfi, a talented abstractionist confined to a Bern asylum for life in 1895.

Finally, there are journeys into myth. The Un-Discovered Islands: An Archipelago of Myths and Mysteries, Phantoms and Fakes (Polygon) by travel writer Malachy Tallack and artist Katie Scott relates the stories of islands that never were. The Terra Novas off East Antarctica spotted by expedition leader Phillip Law in the 1960s were probably icebergs. The Auroras, a trio of islands halfway between the Falklands and South Georgia, were discovered in 1762, actually surveyed in 1796, and finally declared non-existent in the nineteenth century. There are more, from Hy Brasil to Bermeja, and all embellished by Scott’s strange and powerful images of whales, rabbits and jellyfish — species inhabiting what Tallack calls the “geography of the mind”.

John Auldjo's nineteenth-century map of successive lava flows on Vesuvius.

John Auldjo’s nineteenth-century map of successive lava flows on Vesuvius.{credit}Houghton Library, Harvard University, Cambridge, Massachusetts. Reproduced in Explorers’ Sketchbooks. {/credit}

 

For Nature’s full coverage of science in culture, visit www.nature.com/news/booksandarts.

The making of science

Posted on behalf of Jo Baker

Make-Shift-lock-up-1_eps fin4Scientists are makers. The specialized skills they hone in the lab over many years – from assembling robots and circuits to growing microbes and cells – mirror the practices of artisans such as seamstresses and potters. Chemists may melt, stretch and snap a glass tube to make a pipette. Jewellers rearrange silver atoms each time they warm the metal to anneal or soften it.

Bringing together makers of all stripes to innovate was the focus of MAKE:SHIFT, a two-day biennial conference this month in Manchester’s Museum of Science and Industry, home to Charles Babbage’s loom-inspired computing machines. Scientists and designers explored in talks, panel discussions and demonstrations how joint working can advance sustainability, healthcare and communities.

Across smart materials, biodesign, wearable electronics and more, the speakers showed how such collaborations have led them to think and work differently. They explored emerging trends, such as 3D printing and small-scale production. And they asked big questions, such as how the concepts of craft and making have become lost in today’s digital world of instant gratification, yet remain central to hatching new models and cultures of innovation. The following insights and individuals stood out.

Tools and workshops are increasingly accessible, linked and powerful. Fabrication labs or ‘fab labs’ – where members of the public and skilled experts recycle furniture or even edit genes – are proliferating. There are now 700 around the world. And 16 cities (including Barcelona, Boston in the US and Shenzhen) have signed up to become ‘fab cities’– aiming to produce locally 50% of what they consume by 2054. Online networking and exchanges of experience between make spaces is increasing, linking know-how in California with needs in Cape Town, for example.

Small-scale manufacturing is on the rise, aided by the Internet and cheaper production technologies such as 3D printers. Digital blueprints allow anyone with such means to construct furniture or even houses locally. Generic designs can be customized. Garment patterns that can be tweaked and knitted on demand avoid wastage. Customers increasingly care where their products come from, and value sustainability, social good and ethical work practices.

The nature of materials is being rethought. Bio-materials such as fungal webs (mycelium) can be used to ‘grow’ bricks, pots and even dresses on wood-chip, clay or textile frames. Amsterdam-based ecodesigner Maurizio Montalti of Officina Corpuscoli described how, after working with University of Utrecht microbiologists on scaling up these fungal creations, his studio began to look more like a lab. University College London materials scientist Mark Miodownik invoked a future devoid of roadworks if self-healing asphalt becomes reality.

Fungal Futures: a selection of mycorrhyzal materials by Maurizio Montalti for Officina Corpuscoli.

A selection of materials grown directly from fungi by Maurizio Montalti for Officina Corpuscoli.{credit}Fungal Futures © Maurizio Montalti-Officina Corpuscoli, 2016{/credit}

The Anthropocene offers new geologically inspired materials. ‘Fordite’, or ‘detroit agate’,  is made from fine layers of hardened car paint and can be cut and polished like semi-precious stone. We may one day dig up deposits of ‘bone marble’, retrieved from the metamorphosed skeletons of culled farm animals. The fashion industry is the second most polluting in the world, but sportswear company Adidas is scooping waste plastics out of the ocean to make its knitted footwear.

Crafts people are sensitive to people’s emotional responses to materials and objects. Yet few designers are included in research teams examining interactions between robots and humans, for example. Caroline Yan Zheng from London’s Royal College of Art is using soft robotics to make wall panels and accessories that swell or reshape in response to facial emotions. People tell her they find them comforting; one day they might be used to promote calm in hospitals.

Caroline Yan Zheng's soft robotic artefact prototype #4, exploring the performativity of kinetic silicone soft robotics.

Caroline Yan Zheng’s soft robotic artefact prototype #4, exploring the performativity of kinetic silicone.{credit}Caroline Yan Zheng, 2016{/credit}

Surgery is a craft – you don’t want your operation done by someone who has only read a book. Richard Arm from Nottingham Trent University brought in gorily realistic models of parts of the thoracic cavity that he has been making in silicone for surgeons to train on – complete with slimy finish, spurting arteries and the slash across the chest for you to dig your hand into. But introducing design innovations into the healthcare sector is difficult, Jeremy Myerson from the Royal College of Art noted; the sector is risk averse. His redesigned ambulance interior reduces the time it takes for paramedics to treat a patient’s wounds, by giving them better access to the patient and equipment. Yet, despite running it through ‘clinical trials’ successfully, it has yet to be taken up.

For making to drive innovation, many challenges need to be overcome. Craft has an old-fashioned hobbyist image, and many courses are closing as universities struggle to attract students. Yet jewellers and textile and industrial designers are open to new materials and technologies as never before, while few scientists are trained in metalworking or AutoCAD. And it is hard even to define what tacit skills and knowledge are.

Gravity Stool (detail) by Jólan van der Wiel, 2012. Photo

Jólan van der Wiel’s Gravity Stool (detail), created from magnetic plastic compounds, 2012.

That said, some technologies are overhyped. 3D printing remains expensive and impractical with many materials, such as porcelain. While printing is useful to make a detailed prototype, traditional processes like casting are often better for mass production. Also, the software needs to become more intuitive. Ann Marie Shillito of Edinburgh College of Art showed how she is using touch-sensitive ‘haptic’ computer design software to form organic shapes.

So how far can this model of local production be scaled? Ways must be found to promote collaboration between workshops, and optimize who makes what, where. And new business models are needed so that small-scale manufacturers can make a living; most workspaces depend on government grants. Nonetheless, MAKE:SHIFT was a heartening experience that highlighted what science and design have in common rather than, as is too often the case, what divides them. After all, even graphene (carbon that is 1 atomic layer thick) has been linked to traditional craft: the Japanese paper-cutting art of kirigami have been applied to graphene sheets to make stretchable electrodes, hinges and springs.

Jo Baker is senior Comment editor at Nature.

 

For Nature’s full coverage of science in culture, visit www.nature.com/news/booksandarts.

O brave new world of fantastic beasts

Posted on behalf of Stuart Pimm and his research group

Fantastic BeastsFrom the start, European visitors to the New World have celebrated its fantastic biodiversity. What looks like a scarlet macaw embellishes German cartographer Martin Waldseemüller’s 1507 world map, the first to name these lands “America”. Eighty years later the English artist John White, a governor during England’s first attempt at settling North Carolina, was painting fireflies, “which in the night [emit] a flame of fire” (a sight of pure magic on a warm summer’s evening).

And in the 1920s, magizoologist Newt Scamander — with portable menagerie in tow — visited New York with the entirely laudable aim of returning a thunderbird to its home in Arizona. Thus begins Fantastic Beasts and Where to Find Them, the David Yates-directed film based on J.K. Rowling’s book of the same name – one of the set texts her boy wizard, Harry Potter, must study at school.

With my research group, including graduate students Alexandra Sutton, Ryan Huang and Rubén Palacio, I had waited anxiously for this new treatment of Scamander’s classic work on the natural history, biogeography and conservation status of the world’s biodiversity invisible to muggles. (That’s you non-wizards.) We entered the seminar room (transformed to resemble a movie theatre), surrounded by young wizards in Hogwarts’ school uniforms. We had many questions in mind.

Would this hidden biodiversity be as diverse and unexpected as that encountered by the first European settlers in the Americas? How would species be distributed across different biomes? Rowling’s previous accounts of the fauna around Hogwarts have merely hinted at the range of possible species, obviously limited to the school’s location in Scotland. Northern, island ecosystems have few species, albeit a plethora of owls.

Here be dragons

Scamander’s ‘zoo’ fits into a single suitcase, which like Doctor Who’s Tardis is very much larger on the inside. And in we go, where we quickly learn of a wide variety of species mostly unknown to the muggle world. We expected dragons, of course. The theoretical ecologist Robert May and colleagues have discussed them in the pages of this journal and, indeed, predicted their resurgence with global warming (Nature 264, 16-17 (1976); Nature 520, 42-43 (2015).

There are many other species. We see the range of ecosystems occupied, extending beyond the Americas and ranging from frozen Arctic wastes to African savannahs. In the latter, we encounter what could be a horned relative of the gargantuan rhinoceros Paraceratherium, long thought to be extinct. Nor does Scamander neglect those world rulers, the arthropods: there are stag beetles as big as dogs. And a relative of the praying mantis, though it does not pray and, despite exhortations, cannot even be persuaded to smile. Australian fauna are also included, with an engaging duck-billed platypus relative that has a bowerbird’s propensity to collect things — in this case, shiny coins and jewellery.

Dan Fogler as Jacob, Eddie Redmayne as Newt Scamander and a beast called a Bowtruckle in Warner Bros. Pictures' fantasy adventure Fantastic Beasts and Where to Find Them.

Dan Fogler as Jacob, Eddie Redmayne as Newt Scamander and a beast called a Bowtruckle in Warner Bros. Pictures’ fantasy adventure Fantastic Beasts and Where to Find Them.{credit}© 2016 Warner Bros. Fantastic Beasts © JKR{/credit}

Following the presentation, I asked my students: What were the key management issues in the magical world? And how do they compare and contrast to those that muggles experience in their world?

Alexandra noted Scamander’s contradictions: “He’s often the conservationist and he advocates the education of fellow wizards about the value of these magical beasts in their world. But he’s also the collector, keeping wild animals as pets in an environment that’s not necessarily suited to them”. The tension here recalls the species-bagging of early naturalists such as the eccentric Lionel Walter Rothschild, whose vast collection is now held at London’s Natural History Museum.

Species in Scamander’s zoo escape and cause considerable physical damage to New York. It takes much magic to undo the damage, an option unavailable to muggle professionals facing invasive species. As Ryan put it, the movie is also a reminder that “with keeping animals captive comes the callousness by which people traffic in beasts”.

Much of this callousness is borne of our growing separation from the natural world. Rubén reflected: “Some species are mighty, and if not treated correctly, can be dangerous, but this comes from our ignorance. Scamander…understands and engages the animals.” Ryan agreed: “Even though there have been very few wolf attacks on humans, people still fear wolves. Scamander affirms that we humans are the most dangerous beasts of all. When we are scared, we lash out.”

And my view? It tallies with Scamander’s. He asks why “magical beasts, even those that are savage and untameable”, are protected. The answer? To “ensure that future generations enjoy their strange beauty…as we have been privileged to do”.

Stuart Pimm is professor of conservation at the Nicholas School of the Environment, Duke University, Durham, North Carolina, and directs the non-profit SavingSpecies, www.savingspecies.orgHe tweets at @StuartPimm.

 

For Nature’s full coverage of science in culture, visit www.nature.com/news/booksandarts.

Werner Herzog gets geological

Posted on behalf of Noah Baker

InfernoThe film Into the Inferno opens with a grand spectacle. The camera glides up and over tiny figures clustered on the peak of the volcanic island of Ambrym in Vanuatu in the South Pacific. Far below, an ominous lava lake splutters to a bombastic choral soundtrack. There is a sense of ritualistic grandeur here that sets the tone for what follows.

The documentary, created by legendary filmmaker Werner Herzog and Cambridge volcanologist Clive Oppenheimer, straddles the science and culture of volcanoes. It is strong on exploring the significance of volcanoes to humanity — their role in local mythologies, traditions and lifestyles, now and through the centuries. The film even suggests that our relationship with these geological giants stretches back to early hominids living in the shadows of volcanoes in East African rift valleys.

Like many Herzog films, Inferno goes off on tangents and strays into quirky side stories, hopping about among unusual locations. One moment we’re hearing from a volcanology station in North Korea, where Oppenheimer, in a rare international collaboration, has been working with local volcanologists for several years. The next we’re in the midst of an archaeological dig in Ethiopia, scientists scraping away at the soil in search of early hominid remains. The stories and locations do link back to volcanoes, but sometimes a little obliquely.

Oppenheimer occasionally brings insights into the science among the craters and cones, but his central quest remains cultural. And that yields a trove — not least the ‘cargo cult’ on the island of Tanna in Vanuatu. Its members worship a US serviceman called John Frum, who they claim lives in local volcano Yasur.

Noah Baker is senior editor in Nature’s multimedia team. Hear his Nature Podcast interview with Oppenheimer here.

 

For Nature’s full coverage of science in culture, visit www.nature.com/news/booksandarts.

The art of engineering: 9 Evenings revisited

Composer John Cage's xxxx at 9 Evenings, October 1966.

John Cage, Variations VII, 9 Evenings: Theatre & Engineering, October 1966.{credit}Adelaide de Menil{/credit}

I’m gazing at a stage draped in white when a giant zipper suddenly appears, projected onto one wall. As it works its way noisily around, more projections — live-streamed or pre-recorded moving images of buildings, blurred pedestrians, discarded clothing and simmering water — judder on crumpled backdrops. An apparently random urban soundtrack lulls and roars in the background. In the foreground, performers skip rope and cut hair; one solemnly rips up, boils and eats her shirt. It’s quite an evening.

Robert Whitman at performance of Side Effects, October 2016.

Robert Whitman (centre) at performance of Side Effects, October 2016.{credit}Christopher Fernandez{/credit}

The artist behind this indeterminate, playful, technologically rich and vaguely disturbing piece, Side Effects (commissioned by Arts Catalyst) is Robert Whitman. The evening is an homage to 9 Evenings: Theatre & Engineering, a legendary series of performances that, 50 years ago, galvanised New York with an unprecedented mix of cutting-edge technologies and avant-garde art. Whitman was one of 10 artists — among them multi-media maverick Robert Rauschenberg, composer John Cage and choreographer Lucinda Childs — who collaborated one-to-one with 30 engineers, most from research powerhouse Bell Labs and including, notably, the visionary electrical engineer Billy Klüver. Klüver was adamant about involving technologists rather than scientists, feeling that technology is essentially about “the material and the physicality”. It was a moment that paved the way to crossover disciplines such as digital art.

There was a utopian edge to technology then, as America literally reached for the Moon. For artists seeking new media, high-tech expertise enabled fresh explorations in sound and vision. For the engineers, artists expanded what Klüver (already a veteran of collaborations with Jean Tinguely, Andy Warhol, Rauschenberg and Cage) saw as constrained horizons. Whitman, whom I caught up with after the performance of Side Effects, recalled that the 9 Evenings teams included a lot of “arranged marriages”, but worked if goals and enthusiasms chimed.

Billy Kluver in 1965.

Billy Klüver with Robert Rauschenberg’s work Oracle in 1965.{credit}New York Times, courtesy of E.A.T.{/credit}

By that time (October 1966), Whitman had been creating immersive pieces for some years, combining film, performers and ‘shape-changing’ props such as plastic sheeting. His 1960 The American Moon, for instance, had a hallucinatory quality and a sense of “slow time”, according to fellow experimentalist Claes Oldenburg. 9 Evenings offered a chance to push the boundaries in a bold venue.

That was the 69th Regiment Armory, a hangar-like midtown Manhattan edifice where, over 50 years before, another exhibition had exploded America’s cultural complacency with artworks such as Marcel Duchamp’s Nude Descending a Staircase. For 9 Evenings, some 1,500 people a night filed into its reverberating spaces.

Signal splitters, Geiger counters

Whitman’s contribution Two Holes of Water – 3 featured input from a number of engineers, including cellular telephony researcher Robby Robinson. The piece involved 23 performers, seven plastic-wrapped cars equipped with film projectors, one of the first fibre-optic miniature video cameras, film shot using an optical device with parallel mirrors, and a signal splitter that allowed a performer’s front and back view to be superimposed. A projected live image of water being poured into a glass on the Armory floor and documentary footage of Alaskan flora and fauna also featured.

Equally bravura was Cage’s composition Variations VII (pictured above), which harnessed live feeds from numerous sound sources. As Cage ‘played’ several transistor radios, 10 telephone lines picked up ambient noises from locations round the city, including the 14th Street Con Edison electric power station and the press room of the New York Times. Signals from two Geiger counters were converted into sounds; six contact microphones amplified noises generated by performers handling devices such as juicers, while data from electrodes on the forehead of another were converted into sound waves.

Robert Whitman in the 1970s.

Robert Whitman in the late 1960s.{credit}A&T archives, courtesy Los Angeles County Museum of Art{/credit}

Some critics tore into the event, as technology historian Patrick McCray has noted. Whitman, Rauschenberg, Klüver and fellow engineer Fred Waldhauer, however, had already forged ahead with another venture. The non-profit foundation Experiments in Art and Technology (E.A.T.) took the cross-fertilisation further. By 1969, E.A.T. comprised 2,000 artists and as many technologists, riding the wave of innovation in electronics and communications. Their Projects Outside Art series, for instance, featured Telex: Q&A, which linked public spaces in India, Japan, New York and Sweden to encourage citizens of each to question future possibilities.

Meanwhile, a programme with aims similar to E.A.T.’s had sprung up at the Los Angeles County Museum of Art (LACMA). Art and Technology, the brainchild of curator Maurice Tuchman, boasted star physicist Richard Feynman as consultant. Whitman was also involved. So began his immensely fruitful teamwork with optical scientist John Forkner, then at Philco-Ford, the company that built the equipment at NASA’s Johnson Space Center mission control.

Optics scientist John Forkner.

Optical scientist John Forkner.{credit}A&T archives, courtesy Los Angeles County Museum of Art{/credit}

“This public-relations official introduced me to a guy with a long beard. I was lucky,” says Whitman. “John was a natural genius in optics and very interested in music and art. I remember that at one point I was sitting in a car with Feynman and he said, ‘Where’d you find him? He’s terrific.’”

Over 18 months, Whitman and Forkner created a spectacular installation for LACMA at the US Pavilion at Expo ’70 in Osaka, Japan. Tuchman described the work as an “optical tour de force” incorporating 1,000 corner-shaped mirrors reflecting the viewer’s multiplied image to them, as well as pulsating mylar mirrors and “eerily bright three-dimensional objects (a pear, drill, goldfish bowl with live fish, a knife, a clock, ferns, etc.).”

E.A.T. was equally busy at Expo ’70: the Pepsi Pavilion was a focus for several of its cutting-edge collaborations. A major element was a spherical mirror over 27 metres in diameter that created real images of visitors, hanging in space above their heads. Whitman contributed here too, along with physicist Elsa Garmire, while artist Fujiko Nakaya worked with physicist Tom Mee to create the evocative fog sculpture capping the structure. It was clear that by this time, as McCray puts it, artists and engineers between them had “rewired modern art”.

Mirror dome room at the Pepsi Pavilion at Expo '70 in Osaka.

Mirror dome room at the Pepsi Pavilion at Expo ’70 in Osaka.{credit}Shunk-Kender{/credit}

Whitman is now 81, and busy. Many other movers and shakers behind 9 Evenings and E.A.T. are gone. As for E.A.T. itself, it has effectively ended as an entity, but “exists as an idea,” notes its director Julie Martin (Klüver’s widow). Klüver himself, in a 1999 interview with Hans Ulrich Obrist, said, “once everybody understands the idea of artists and engineers working together, there is no reason for E.A.T. to exist”.

I asked Whitman what he thought about 9 Evenings now. “Looking back is what I call ‘dead guy stuff’. You need to get onto the next thing. As for the future, it’d be fun to be around.” There is something there of the unquenchably optimistic technophile, always looking for the next innovation. Yet just for a moment, he did look back. “I didn’t know it at the time, but for me it all started with Emmett Kelly,” he told me. On a childhood visit to the circus in the 1940s, Whitman had been galvanised by the iconic American clown, who had a routine where he swept up the spotlight with a broom. “I was staring at everyone around me, wondering why they weren’t seeing this miracle. It set me on my way.”

I thought of the spotlit zipper in Side Effects, and began too to see how an early bent towards flux and illumination led him to performance, advanced technology and the intensive mix of both that was 9 Evenings. And beyond.

Arts Catalyst’s 9 Evenings: Theatre and Engineering Revisited 1966/2016 continues to 29 October.

Archival information on 9 Evenings and E.A.T. can be accessed at the Daniel Langlois Foundation Collection. Maurice Tuchman’s report on LACMA can be accessed here. My thanks to Robert Whitman, Julie Martin and Patrick McCray for additional information. McCray is currently writing a book (tentatively entitled Art Rewired: Engineering a New Creative Culture) on the art-technology nexus in that era. His Leaping Robot blog meanwhile offers much fascinating detail on 9 Evenings, E.A.T. and more.

Science fiction: journey to the East

Cixin Liu

Cixin Liu.{credit}Li Yibo{/credit}

Posted on behalf of Iulia Georgescu

Last week’s Chinese Sci-Fi event at the London Literature festival was irresistible: I love science fiction and have a keen interest in the Far East. The star here was Cixin Liu, whose 2008 Hugo-awarded novel The Three-Body Problem is a huge best-seller in China and, since its English translation (Head of Zeus, 2015), beyond. (See Nature’s interview with its translator, sci-fi writer Ken Liu, here.) Liu’s fellow panellist was Xiaolu Guo, the award-winning, genre-defying Chinese novelist and filmmaker now living in Britain, whose works include the 2014 I Am China and 2012 UFO In Her Eyes.

Xiaolu Guo.

Xiaolu Guo.{credit}provided by Xiaolu Guo{/credit}

Both Cixin Liu and Guo had much to say. They agreed that sci-fi is a Western concept imported into China in the late 1970s and 80s. Post-Cultural Revolution China had the perfect climate for nurturing the genre, they said. First, there was a void in fantastic and speculative literature: much of Chinese literature in the twentieth century was focused on realism. Secondly, as science education was very poor at that time, sci-fi was a means of educating about science. The public fell upon it, eager to learn more about the latest discoveries.

Although Liu was heavily influenced by Western sci-fi writers, Chinese sci-fi has unique features. The difference, he seemed to think, lies in the Christian tradition imprinted on Western fiction. For instance, there is much discussion of whether the ethical implications of human cloning are perceived differently in China (see this Nature article). Liu averred that more than that, the idea of a doomsday, so dominant in Western thought, is less so in Chinese culture, which enshrines the concept of time flowing continuously and eternally.

imagesThat said, Liu’s The Three-Body Problem is about the end of the world — which is perhaps one of the reasons for its international popularity. (Japanese sci-fi is rich in apocalyptic scenarios too, for example in classics such as Kobo Abe’s Inter Ice Age 4, Sakyo Komatsu’s Japan Sinks, or the Neon Genesis Evangelion media franchise.)

Liu and Guo agreed that for them, the appeal of sci-fi lies in its departure from realism. Guo suggested that sci-fi is perhaps the only way for writers living in China to talk about political and social issues, as with Jingfang Hao‘s Hugo-winning novelette Folding Beijing (set in a future where three social classes inhabit Beijing in different spatial dimensions that only occasionally overlap). For Liu, sci-fi allows him to explore a bigger picture – humanity as a whole and its place in the Universe, as in the last book of his Three-Body trilogy, set in the very distant future.

The event made me realize anew how little of contemporary Asian literature has been translated into English. I hope that Liu’s popularity prompts publishers to more translations: I already have a long wish list.

Iulia Georgescu is senior editor, Nature Physics.

 

Access Natures science fiction special here; and Natures science-fiction column Futures (and Future Conditional blog) here. For Nature’s full coverage of science in culture, visit www.nature.com/news/booksandarts.