Showing posts with label David Kelley. Show all posts
Showing posts with label David Kelley. Show all posts

Tuesday, May 8, 2012

For Some of the World’s Poor, Hope Comes Via Design and Innovation

It is late. About 12:10 in Colorado Springs. I am fascinated by the social and business ramifications associated with Mike Kimmelman's New York Times story on design and technology through "Why didn't someone think of this before" solutions. The photos below provide a multitude of implicit ways to better the world locally. Indeed Kimmelman’s article is awe inspiring not from the standpoint of observation but transformative participation. Which is the point. 

Below a renovated public walkway, along the canal in Bangkok, where residents are helping to design cleaner places to live. With families in flimsy homes on stilts above polluted waters, architects from nearby Sripatum University were enlisted to devise row houses, detached houses and semidetached houses, along the lines of what residents said they wanted.

Media_httpgraphics8ny_sdcyy

In the photo above the solution is absolutely simple. They have enriched a community. That enriches familes. Do you think the value of the improvements have been achieved? 

A community cooker is fueled by refuse that residents collect in return for time using the oven.

A few solutions:

  1. a filtered drinking straw that prevents the spread of typhoid and cholera
  2. a bamboo treadle pump that helps poor farmers in Cambodia and India extract groundwater during the dry seasons
  3. The Q Drum, a doughnut-shaped plastic container, easily rolled, even long distances by children, which is used to transport up to 13 gallons of water.  I suggest reading this article in entirety via New York Times.

 Consulting, Speaking & Coaching. Driving Growth through Innovation  

Innothink Group is a strategic management and innovation consultancy. Where many consulting firms are reluctant to bear risks or tie their rewards to project outcomes, we decided to build a better model. We align our success with yours. We’re outcome obsessed, outcome paid, putting over a third of our fees at risk subject o hitting predetermined milestones. More than a guarantee we wanted from the outset to create true partnerships. 

For speaking, coaching or consulting inquiries contact: 

CEO Jim Woods

+1 719- 649-4118

IDEO’s chairman and founder David Kelley talks about regaining creative confidence: Innovation 101

Innovators aren't exceptional as much as they are confident. So says David Kelley, the founder of the venerable Palo Alto, Calif., design firm IDEO.

Mr. Kelley, whose company is responsible for designing a wide range of products and services, including the modern computer mouse, believes—and research suggests—that virtually everyone has the capacity to innovate. It's just that somewhere around the fourth grade most of us stop thinking of ourselves as creative, he says, so our ability to innovate atrophies.

Mr. Kelley has made it his life's work to help people regain their creative confidence. In his three decades as a designer and as a professor in the design program at Stanford University's engineering school, from which he graduated in 1978, Mr. Kelley has developed a set of techniques for solving all kinds of problems—techniques that he came to believe could be taught as a methodology. His approach is called "design thinking."

Six years ago, with a $35 million gift from German software magnate Hasso Plattner, co-founder of SAP AG and a onetime IDEO client, Mr. Kelley founded the Hasso Plattner Institute of Design at Stanford—dubbed the d.school—a nondegree program that draws students from all seven of Stanford's graduate schools. The program aims to help students unlock their creative potential by teaching them to become, among other things, more open to experimentation, more comfortable with ambiguity and less afraid of failure.

Teaching the Process

The best way to unleash creativity, Mr. Kelley says, is to give students an "experience," or in d.school speak, a design challenge. Under his teaching model, however, students aren't just handed a problem to solve—they must define the problem themselves through research and direct observation.

David Kelley says most of us stop thinking of ourselves as creative somewhere around the fourth grade

One group of students, for example, was tasked with designing an incubator for the developing world, where infant mortality is high and expensive incubators are scarce. But when the students were dispatched to Nepal to spend time with mothers and doctors, they found that most births take place in rural areas far from hospitals, so flooding hospitals with cheaper incubators would be of no use to most premature and low-birth-weight babies.

Equipped with this knowledge, and, as Mr. Kelley sees it, a newfound empathy for their subjects, the students reframed the problem. "This was about keeping babies warm, not cheaper incubators," explains George Kembel, executive director and co-founder of the d.school.

The second step in the process is "ideation," where students visualize and brainstorm potential solutions with one another. The students decided that what was needed was an inexpensive baby-warming device that could function in rural communities—one that was transportable, simple to use and sanitize, and worked without electricity.

Next comes "prototyping." The students made sketches and three-dimensional models of potential incubators that they could test, modify, and test again, in an iterative process that is at the heart of design thinking. By the end of the class they had a finished prototype—a kind of sleeping bag made of special material that could be wrapped around a premature infant and kept clean and warm with nothing more than boiling water. The students went on to form a nonprofit company in the hopes of bringing their Embrace incubator to market.

Mr. Kembel says the learning experience at the d.school is centered on a few basic beliefs. One is that people learn by doing, so the more projects students tackle the better. The same goes for developing prototypes. Speed and quantity are encouraged in the hope that students will fail early and often. "If you go through lots of little tests, you learn more than if you just do one test," says Mr. Kembel.

Another guiding principle is that people learn best by collaborating with others who have radically different points of view, so classes should be made up of students and teachers from a variety of disciplines—the more the better.

Moreover, "everyone needs to have an equal voice," says Mr. Kembel, "because everyone in a sense is learning, even the faculty." So the old model of teacher at podium lecturing students has been thrown out in favor of classrooms that look more like studios, with tables and chairs scattered about.

Mr. Kembel says a lot of time at the d.school is spent helping students unlearn things they learned in elementary school. Fear of failure is rampant among students who have been drilled in standardized-test taking, he says. "What we want the graduate students to do is work with others and go out and take risks," says Mr. Kembel.

Making Waves

The d.school is reporting progress on several fronts.

It now enrolls 700 students per year, up from 30 six years ago. Applications are running at two to three times the number of available slots, Mr. Kembel says, and increasing numbers of students are choosing to attend Stanford because of the d.school. He also says employers are starting to seek out students with d.school credentials.

The d.school has produced several companies, including d.light design, which makes solar-powered lanterns for the developing world; Alphonso Labs, which markets Pulse, a news-reading application for iPhone, iPad and Android devices; and of course, Embrace, which hatched from the incubator project.

Almost weekly, educators from around the world make the pilgrimage to Palo Alto to take tours and get advice on how to set up d.school-like programs of their own. Dozens of colleges have programs in various stages of development.

More recently, the d.school has been teaching K-12 teachers how to employ design-thinking techniques in their classrooms. Last year alone, more than 500 educators attended workshops at the d.school's K-12 lab. Research is under way, but early indications are that K-12 students exposed to design thinking are more engaged and motivated to learn, say Rich Crandall, director, and Adam Royalty, founding member and lead researcher, of the K-12 lab.

To Mr. Kelley, that is the Holy Grail of design thinking. He says it is behavioral change that enables students to gain innovation confidence, something he believes is as important as gaining literacy skills. "For me this is a mindset," he says. "It's a way of thinking that you can use in every part of your life."

Ms. Geer is a writer in Connecticut. She can be reached at reports@wsj.com. via online.wsj.com

 Speaking 

As the CEO and founder of InnoThink Group, Jim can help your organization enhance the strategic innovation and competitiveness of your business policy and strategy, with an emphasis on increasing top line growth. 

If you’re interested in having Jim speak at your next event, simply use this form to send us your details and speaking requirements, and we’ll be in touch shortly. Or you may call us at 719-649-4118. Thank you!

Saturday, April 28, 2012

The 10 Greatest (Accidental) Inventions of All Time - (Not Quite)

Whoops! The 10 Greatest (Accidental) Inventions of All Time
Below are ten ceremonious "accidental innovations." Certainly these are wonderful stories. Actually, though, while we delight in retelling such Horatio Algier like successes, I would not really label these "accidental innovation." The innovation itself can't really be said to be "accidental," even though it involves accident. For it takes a considerable capability to see the value in an accident, and to build upon it to create even more value. Jim Woods

1. The Microwave - Percy L. Spencer
Percy Spencer, an engineer at Raytheon after his WWI stint in the Navy, was known as an electronics genius. In 1945, Spencer was fiddling with a microwave-emitting magnetron—used in the guts of radar arrays—when he felt a strange sensation in his pants. A sizzling, even. Spencer paused and found that a chocolate bar in his pocket had started to melt. Figuring that the microwave radiation of the magnetron was to blame (or to credit, as it would turn out), Spencer immediately set out to realize the culinary potential at work. The end result was the microwave oven—savior of eager snackers and single dudes worldwide.


2. Saccharin - Ira Remsen, Constantin Fahlberg
In 1879, Ira Remsen and Constantin Fahlberg, at work in a laboratory at Johns Hopkins University, paused to eat. Fahlberg had neglected to wash his hands before the meal—which usually leads to a quick death for most chemists, but led to him noticing an oddly sweet flavor during his meal. Artificial sweetener! The duo published their findings together, but it was only Fahlberg's name that made it onto the (incredibly lucrative) patent, now found in pink packets at tables everywhere. That is to say, Remsen got screwed—he later remarked, "Fahlberg is a scoundrel. It nauseates me to hear my name mentioned in the same breath with him."


3. Slinky - Richard James
In 1943, Navy engineer Richard James was trying to figure out how to use springs to keep the sensitive instruments aboard ships from rocking themselves to death, when he knocked one of his prototypes over. Instead of crashing to the floor, it gracefully sprang downward, and then righted itself. So pointless—so nimble—so slinky. The spring became a goofy toy of many childhoods—that is before every kid inevitably gets theirs all twisted up and ruins it. 300 million sold worldwide!


4. Play-Doh - Kutol Products
Before being found ground into the rugs of child-rearing homes everywhere, Play-Doh was ironically created to be a cleaning product. The paste was first marketed as a treatment for filthy wallpaper—before the company that produced it began to go down the tubes. The discovery that saved Kutol Products—headed for bankruptcy—wasn't that their wall cleaner worked particularly well, but that schoolchildren were beginning to use it to create Christmas ornaments as arts and crafts projects. By removing the compound's cleanser and adding colors and a fresh scent, Kutol spun their wallpaper saver into one of the most iconic toys of all time—and brought mega-success to a company headed for destruction. Sometimes, you don't even know how brilliant you are until someone notices for you.


5. Super Glue - Harry Coover
In what have been a very messy moment of discovery in 1942, Dr. Harry Coover of Eastman-Kodak Laboratories found that a substance he created—cyanoacrylate—was a miserable failure. It was not, to his dismay, at all suited for a new precision gun sight as he had hoped—it infuriatingly stuck to everything it touched. So it was forgotten. Six years later, while overseeing an experimental new design for airplane canopies, Coover found himself stuck in the same gooey mess with a familiar foe—cyanacrylate was proving useless as ever. But this time, Coover observed that the stuff formed an incredibly strong bond without needing heat. Coover and his team tinkered with sticking various objects in their lab together, and realized they had finally stumbled upon a use for the maddening goop. Coover slapped a patent on his discovery, and in 1958, a full 16 years after he first got stuck, cyanoacrylate was being sold on shelves.


6. Teflon - Roy Plunkett
The next time you make a frustration-free omelette, thank chemist Roy Plunkett, who experienced immense frustration while inadvertently inventing Teflon in 1938. Plunkett had hoped to create a new variety of chlorofluorocarbons (better known as universally-despised CFCs), when he came back to check on his experiment in a refrigeration chamber. When he inspected a canister that was supposed to be full of gas, he found that it appeared to have vanished—leaving behind only a few white flakes. Plunkett was intrigued by these mysterious chemical bits, and began at once to experiment with their properties. The new substance proved to be a fantastic lubricant with an extremely high melting point—perfect at first for military gear, and now the stuff found finely applied across your non-stick cookware.

7. Bakelite - Leo Baekeland
In 1907, shellac was commonly used to insulate the innards of early electronics—think radios and telephones. This was fine, aside from the fact that shellac is made from Asian beetle poop, and not exactly the cheapest or easiest way to insulate a wire. What Belgian chemist Leo Baekeland found in instead was—get ready—polyoxybenzylmethylenglycolanhydride, the world's first synthetic plastic, commonly known as Bakelite. This pioneering plastic was moldable into virtually any shape, in any color, and could hold its form against high temperatures and daily wear—making it a star among manufacturers, jewelers, and industrial designers.


8. Pacemaker - Wilson Greatbatch
An assistant professor at the University of Buffalo thought he had ruined his project. Instead of picking a 10,000-ohm resistor out of a box to use on a heart-recording prototype, Wilson Greatbatch took the 1-megaohm variety. The resulting circuit produced a signal that sounded for 1.8 milliseconds, and then paused for a second—a dead ringer for the human heart. Greatbatch realized the precise current could regulate a pulse, overriding the imperfect heartbeat of the ill. Before this point, pacemakers were television-sized, cumbersome things that were temporarily attached to patients from the outside. But now the effect could be achieved with a small circuit, perfect to tuck into someone's chest.


9. Velcro - George de Mestral
A dog invented velcro.
Alright, that's something of an exaggeration, but a dog did play an instrumental role. Swiss engineer George de Mestral was out for a hunting trip with his pooch, and noticed the annoying tendency of burrs to stick to its fur (and his socks). Later, looking under a microscope, Mestral observed the tiny "hooks" that stuck burrs to fabrics and furs. Mestral experimented for years with a variety of textiles before arriving at the newly invented nylon—though it wasn't until two decades later that NASA's fondness for velcro popularized the tech.


10. X-Rays - Wilhelm Roentgen
Okay, yes, x-rays are a phenomenon of the natural world, and thus can't be created. But sshhh! The story of their discovery is a fascinating one of incredible chance. In 1895, German physicist Wilhelm Roentgen was performing a routine experiment involving cathode rays, when he noticed that a piece of fluorescent cardboard was lighting up from across the room. A thick screen had been placed between his cathode emitter and the radiated cardboard, proving that particles of light were passing through solid objects. Amazed, Roentgen quickly found that brilliant images could be produced with this incredible radiation—the first of their kind being a skeletal image of his wife's hand.
Eureka is our week-long meditation on the wonders of invention, inventors and genius.
Illustration by our contributing illustrator Sam Spratt. Check out Sam's portfolio and become a fan of his Facebook Artist's Page. via gizmodo.com
New Solutions to Attract and Retain More Customers
Jim Woods is president and founder of InnoThink Group; a leading Strategic Management and Innovation Consulting Firm in Denver, Colorado. He is an author, speaker, and a strategic innovation and hypercompetition expert to profit, non-profit organizations and municipalities. He advises clients with an objective view of their competitive capabilities and defines a clear course of action to maximize their innovation return on investment to achieve profitable growth. Build a capability for ongoing competitive innovation across your company. Call 719-649-4118 or complete our form: contact us for more information on hiring Jim to advise or speak for your next event.