Chapter 10: Design Methodologies
37 Maker Culture
from wikipedia: https://en.wikipedia.org/wiki/Maker_culture
The maker culture is a contemporary culture or subculture representing a technology-based extension of DIY culture that intersects with hacker culture (which is less concerned with physical objects as it focuses on software) and revels in the creation of new devices as well as tinkering with existing ones. The maker culture in general supports open-source hardware. Typical interests enjoyed by the maker culture include engineering-oriented pursuits such as electronics, robotics, 3-D printing, and the use of Computer Numeric Controltools, as well as more traditional activities such as metalworking, woodworking, and, mainly, its predecessor, the traditional arts and crafts. The subculture stresses a cut-and-paste approach to standardized hobbyist technologies, and encourages cookbook re-use of designs published on websites and maker-oriented publications. There is a strong focus on using and learning practical skills and applying them to reference designs.
Maker culture emphasizes learning-through-doing (active learning) in a social environment. Maker culture emphasizes informal, networked, peer-led, and shared learning motivated by fun and self-fulfillment. Maker culture encourages novel applications of technologies, and the exploration of intersections between traditionally separate domains and ways of working including metal-working, calligraphy, film making, and computer programming. Community interaction and knowledge sharing are often mediated through networked technologies, with websites and social media tools forming the basis of knowledge repositories and a central channel for information sharing and exchange of ideas, and focused through social meetings in shared spaces such as hackspaces. Maker culture has attracted the interest of educators concerned about students’ disengagement from STEM subjects (science, technology, engineering and mathematics) in formal educational settings. Maker culture is seen as having the potential to contribute to a more participatory approach and create new pathways into topics that will make them more alive and relevant to learners.
Some say that the maker movement is a reaction to the de-valuing of physical exploration and the growing sense of disconnection with the physical world in modern cities. Other scholars including Raymond Malewitz and Charles Jencks have examined theUtopian vision of Maker culture, which they link to myths of rugged individualism, the possibility of a counterculture and libertarianism Many products produced by the maker communities have a focus on health (food), sustainable development, environmentalism, local culture and can from that point of view also be seen as a negative response to disposables, globalised mass production, the power of chain stores, multinationals and consumerism.
In reaction to the rise of maker culture, Barack Obama pledged to open several national research and development facilities to the public. In addition the U.S. federal government renamed one of their national centers “America Makes“.
The maker movement is a social movement with an artisan spirit in which the methods of digital fabrication—previously the exclusive domain of institutions—have become accessible at a personal scale, following a logical and economic progression similar to the transition from minicomputers to personal computers in the microcomputer revolution of the 1970s. In 2005, Dale Dougherty launched Make magazine to serve the growing community, followed by the 2006 launch of Maker Faire. The term, coined by Dougherty, grew into a full-fledged industry based on the growing number of DIYers who want to build something rather than buy it.
Spurred primarily by the advent of RepRap 3D printing for the fabrication of prototypes, declining cost and broad adoption have opened up new realms of innovation. As it has become cost effective to make just one item for prototyping (or a small number of household items), this approach can be depicted as personal fabrication for “a market of one person”.
The rise of the maker culture is closely associated with the rise of hackerspaces, Fab Labs and other “maker spaces”, of which there are now many around the world, including over 100 each in Germany and the United States. Hackerspaces allow like-minded individuals to share ideas, tools, and skillsets. Some notable hackerspaces which have been linked with the maker culture include Urban Workshop, Noisebridge, NYC Resistor, A2 Mech Shop, Pumping Station: One, Artisan’s Asylum,danger!awesome, and TechShop. In addition, those who identify with the subculture can be found at more traditional universities with a technical orientation, such as MIT and Carnegie Mellon (specifically around “shop” areas like the MIT Hobby Shop and CMU Robotics Club). As maker culture becomes more popular, hackerspaces and Fab Labs are becoming more common in universitiesand public libraries. The federal government has started adopting the concept of fully open makerspaces within its agencies, the first of which (SpaceShop Rapid Prototyping Lab) resides at NASA Ames Research Center. In Europe the popularity of the labs is more prominent than in the US: about three times more labs exist there.
Outside Europe and the US, the maker culture is also on the rise, with several hacker or makerspaces being landmarks in their respective cities’ entrepreneurial and educational landscape. More precisely: HackerspaceSG in Singapore has been set up by the team now leading the city-state (and, arguably, South-East Asia’s) most prominent accelerator JFDI.Asia. Lamba Labs in Beirut is recognized as a hackerspace where people can collaborate freely, in a city often divided by its different ethnic and religious groups.Xinjechian  in Shanghai is China’s first hackerspace, which allows for innovation and collaboration in a country known for its strong internet censorship.
With the rise of cities, which will host 60% of mankind by 2030, hackerspaces, fablabs and makerspaces will likely gain traction, as they are places for local entrepreneurs to gather and collaborate, providing local solutions to environmental, social or economical issues. The Institute for the Future has launched in this regard Maker Cities, as “an open and collaborative online game, to generate ideas about how citizens are changing work, production, governance, learning, well-being, and their neighborhoods, and what this means for the future”.
Cuba will host the first international Open Technology 4 Life Workshop inviting American Makers to collaborate with Cuban Makers in January 2016 in Havana.
Over the same time frame, makerspaces have started to spring up. Though desktop machines and inexpensive tools for the home have made many projects possible, some still require industrial equipment that’s not accessible to the typical maker. Makerspaces — TechShop is probably the best-known, with multiple locations around the U.S. — tend to be a community-based industrial space that operate on a membership plan, somewhat like a gym.
Tools and hardware
3D printers and 3D scanners, microcontrollers, drones, DIY electronics like littleBits, are just some of the tools that are helping grow the movement. They’re growing less expensive — in some cases, they’re already very reasonable — and getting smaller. But this combined with the cloud and the openness in hardware and software give the biggest advance to the maker culture.
The cloud itself is a basic tool in service of the maker movement, enabling increased collaboration, digital workflow, distributed manufacturing (i.e., the download of files that translate directly into objects via a digitized manufacturing process) and collaborative economy. This, combined with the Open source movement, initially focused on software, has been expanding into open-source hardware, assisted by easy access to online plans (in the cloud) and licensing agreements.
Programmable microcontrollers and microcomputers like the Arduino, Raspberry Pi, BeagleBone Black, and Intel’s Galileo and Edison controllers, are easy to program and enable connected devices, and some open source. Combined with the cloud, they’re helping create the Internet of Things.
A very important tool for the Maker culture, the additive manufacturing, like 3D printing (including machining, like CNC milling and routing) have moved to the desktop. This combinates with the open hardware in the cloud for open-source 3D printing. Also combines with DIY open-source microelectronics to create autoreplicant 3d printers, as RepRap.
Other Types of Making
Maker culture involves many types of making – this section reviews some of the major types.
Amateur Scientific Equipment
This involves making scientific instruments for citizen science or open source labs. With the advent of low-cost digital manufacturing it is becoming increasingly common for scientists as well as amateurs to fabricate their own scientific apparatuses from open source hardware designs.
Clothes can include sew and no-sew DIY hacks.
Clothing can also include knitted or crocheted clothing and accessories. Some knitters may use knitting machines with varying degrees of automatic patterning. Fully electronic knitting machines can be interfaced to computers running computer-aided design software. Arduino boards have been interfaced to electronic knitting machines to further automate the process.
Free People, a popular clothing retailer for young women, often hosts craft nights inside the doors of its Anthropologie locations.
Biology, food and composting
Examples of maker culture in food production include baking, homebrewing, winemaking, vegoil, pickling, sausage, cheesemaking,yogurt and pastry production.
This can also extend into urban agriculture, composting and synthetic biology. 
Maker cosmetics includes parfums, creams, lotions, gels and shampoos.
Tool kits for maker cosmetics can include beakers (250 and 400 ml), digital scales, laboratory thermometers (if possible, from -20 to 110 °C), pH paper, glass rods, plastic spatulas, and spray to disinfect with alcohol.
Parfums can be done at home using (96°) ethanol (also in the form of vodka or Everclear), essential oils or fragrance oils, infused oils, even flavour extracts (such as pure vanilla extract), distilled or spring water and glycerine. Tools glass bottles, glass jar, measuring cup/measuring spoons, a dropper, funnel and aluminum foil or wrapping paper, if you are using clear glass bottles.
The concept of homemade and experimental instruments in music has its roots prior to the maker movement, from complicated experiments with figures such as Reed Ghazala and Michel Waisvisz pioneering early circuit bending techniques to simple projects such as the Cigar Box Guitar. Bart Hopkin published the magazine Experimental Musical Instruments for 15 years followed by a series of books about instrument building. Organizations such as Zvex, WORM, STEIM, Death by Audio, and Casper Electronics cater to the do-it-yourself audience, while musicians like Nicolas Collins and Yuri Landman create and perform with custom made and experimental instruments.
Makers can also make or fabricate their own tools. This includes knives, hand tools, lathes, 3-D printers, wood working tools,etc.
A kit car, also known as a “component car”, is an automobile that is available as a set of parts that a manufacturer sells and the buyer himself then assembles into a functioning car.
Car tuning can include electric vehicle conversion.
Some media outlets associated with the subculture include MAKE (a magazine published since 2005 by O’Reilly Media), Wamungoand the popular weblog Boing Boing. Boing Boing editor Cory Doctorow has written a novel, Makers, which he describes as being “a book about people who hack hardware, business-models, and living arrangements to discover ways of staying alive and happy even when the economy is falling down the toilet”. In 2016 Intel sponsored a reality TV show – America’s Greatest Makers – where 24 teams of Makers compete for $1 million.