Most parts of this piece have been written in 2011 and 2012 and some may need updating.
- 1 Introduction
- 2 History
- 3 Hardware tools
- 4 Software
- 5 Links
- 6 Bibliography
- 7 Acknowledgment
A Fab Lab or fablab (fabrication laboratory) is a small-scale workshop with computer controlled tools with the aim to make "almost anything". (Wikipedia).
Fab labs are a disruptive technology. In the same way that micro computers changed computing, desktop fabbers (fab lab machines) may change manufacturing, i.e. people can produce things at home or within small organizations.
Fablabs are typically open to the public and should have a charter. Other types of collaborative workshops for making are maker spaces, hacker spaces, tech shops, fac labs, etc. A space with a lone 3D printer should not be called a fablab.
Fab labs and 3D printers in particular will have a certain impact on education including computer-supported educational technology. Examples of educational domains and applications are design teaching (in engineering or design schools), producing constructionist learning objects (manipulatives that may or may not be augmented with computer technology), and creation of replicas or augmented objects for museum learning.
- Fab labs in education (overview article with links and bibliography)
- Digital design and fabrication bibliography
- Constructionist learning objects and Fröbel gifts, i.e. educational application areas with potential for desktop fabbers.
- Tour de Fablab (under construction until december 2011)
- Fablab TECFA
- 3D printing
- computerized embroidery
- hobby milling
- Vinyl cutting (Silhouette Cameo)
Fab labs can have different aims, e.g. the include rapid prototyping of industrial products or low cost and on-demand manufacturing from "open source designs" for both hobbyist and serious use. Both purposes include an idea of empowering individuals to create devices that are adapted to specific needs. Fab labs also can be part of Do-It-Yourself (DIY) communities, cultures and projects. (Kuznetsov, 2010)
The Fab@Home project emphasizes freedom of design and innovation of a Solid Freeform Fabrication system:
In a similar way IFTF, in the Future of Making Map argues:
The Fab Lab concept emerged at MIT under the direction of N. Gershenfeld. It included a laser cutter, a miniature milling machine and jigsaw cutting machine. At the same time, people started thinking about creating cheap 3D printers.
The Fab Lab movement also is anchored in ecological thinking. “Think of RepRap as a China on your desktop” (Chris di Bona). Typical materials used in desktop fabrication are not much polluting and there is no transportation cost. The technology will also allow to produce cheap goods that are locally adapted. Finaly, designs can be shared for free, which means that "fab labs" rely on open content, both for the design of the tools and the designs that these tools then can "print".
A possible future was described by Vilbrandt et al (2008) as Universal Desktop Fabrication. “Advances in digital design and fabrication technologies are leading toward single fabrication systems capable of producing almost any complete functional object. We are proposing a new paradigm for manufacturing, which we call Universal Desktop Fabrication (UDF), and a framework for its development. UDF will be a coherent system of volumetric digital design software able to handle infinite complexity at any spatial resolution and compact, automated, multi-material digital fabrication hardware. This system aims to be inexpensive, simple, safe and intuitive to operate, open to user modification and experimentation, and capable of rapidly manufacturing almost any arbitrary, complete, high-quality, functional object. Through the broad accessibility and generality of digital technology, UDF will enable vastly more individuals to become innovators of technology, and will catalyze a shift from specialized mass production and global transportation of products to personal customization and point-of-use manufacturing. Likewise, the inherent accuracy and speed of digital computation will allow processes that significantly surpass the practical complexity of the current design and manufacturing systems. This transformation of manufacturing will allow for entirely new classes of human-made, peer-produced, micro-engineered objects, resulting in more dynamic and natural interactions with the world.” (Abstract, retrieved 17:30, 25 June 2009 (UTC)).
In October 2008, Evan Malone, the principal designer and implementor of Fab@Home, posted a (draft) Functional Block Diagram for FutureFab System at NextFab and that is shown below.
This diagram shows the complexity of software and hardware constraints interaction. Current fabbers can't produce "anything", but near future systems will be able to integrate both solid freeform fabrication (printing 3D objects) and electronic components
An excellent source for the early history of 3-D models is Lipson et al, 2004). According to this paper, “Physical models of machines have played an important role in the history of engineering for teaching, modeling, and exploring mechanical concepts. Many of these models have been replaced by computational representations, but new rapid-prototyping technology allows reintroduction of physical models as an intuitive way to demonstrate mechanical concepts” (Lipson et al, 2004:1032).
Here are a few milestones (that should be completed):
- 15th century
- Filippo Brunelleschi 1377–1436, the architect and engineer of the Duomo in Florence is known to have created construction models.
- 19th century
- Robert Willis (1800–1875) of Cambridge was known for his kinematic teaching models.
- Franz Reuleaux (1829–1905) created the world’s largest collection of kinematic models at the Technical University of Berlin with over 800 models.
- Birth of numerical control, i.e. machine tools controlled by code.
- mid 1950's
- Birth of special purpose programming languages for computer numerical controlled (CNC) machine tools.
- end 1950's - mid 1960's
- Birth of interfaces of Computer-aided design (CAD) with CNC.
- Mohamed Hashish created a technique to add abrasives to the water jet cutter
- Emergence of 3D-Printing
- Neil Gershenfeld's et al. MIT class 863.04 - how to make (almost) anything.
- The RepRap prototype
- Neil Gershenfeld and Joe Jacobson MIT class How To Make Something That Makes (almost) Anything.
- A large number of full, small and mini fablabs in the World (about a 100 are listed in the fablab wiki
- 3D printers become consumer appliances
3 Hardware tools
There exist several popular fab lab technologies, some of which are described below in more details. Most fall in the category of solid freeform fabrication tools and that include:
- 3D printers
- Laser cutters
- CNC machines
- Automated paper cutters
- 3D Scanners (for replication)
- Laser sintering
- embedded systems building blocks: Another kind of toolkits are electronics platforms like Arduino.
A fabber (or digital fabricator) refers to a "factory in box" (i.e. one of the above tools) that can create things automatically from digital data. The Digital Fabrication Portal distinguishes three fundamental kinds of fabbers, according to the way they operate on their raw material:
As of May 2009, there seem to be three kinds of fab labs
- Fairly expensive setups (USD 60K range) that focus a lot on electronics and a large tool set for working with materials. A typical example would be MIT's "FabCentral" Lab described in the Fab Lab inventory. An other big fab lab, the Waag Society (NL) includes a laser cutter, a milling machine, a Modela milling and scanning machine. a vinyl cutter, an lock stich machine and an embroidery machine. One June 2009, Waag listed about 30 labs of this type world-wide.
- Small setups that only have 2-3 machines, e.g. a simple 3D desktop printer. Since we expect these 3D printers to become cheaper and cheaper, other devices such as laser cutters also may become more affordable and therefore popular. Hobby mills are already cheap.
- "Other", e.g. third-world, hobbyist and artist labs who assemble things from various parts, e.g. an open source washing machine from bicycle parts, bamboo, a solar panel and a motor.
We found it quite interesting that when wrote the version of this piece in 2009, the MIT and the Waag fab lab did not include 3D-printers in the description of their setup. That probably meant that these two communities lived on two different "planets". However, as of 2011, the "official" list of fab lab engines include a 3D printer.
3.1 Solid Freeform Fabrication overview
“Freeform Fabrication is a collection of manufacturing technologies with which parts can be created without the need for part-specific tooling. A computerized model of the part is designed. It is sliced computationally, and layer information is sent to a fabricator that reproduces the layer in a real material” (Laboratory of Freeform Fabrication, UTexas, retrieved 17:25, 24 June 2009 (UTC)). CreatItReal shows an animation of this principle. Typical commercial free form fabricators range between 20'000 and 300'000 $US although low-end 3D printers start at $5000 (June 2009). Open source kits are much cheaper if self-assembled (see 3D printing)
Low End Solid Freeform Fabrication tools, also called rapid prototype machines are usually a kind of 3D printers. “3D printing is a unique form of fabrication that is related to traditional rapid prototyping technology. A three dimensional object is created by layering and connecting successive cross sections of material. 3D printers are generally faster, more affordable and easier to use than other additive fabrication technologies. While prototyping dominates current uses, 3D printers offers tremendous potential for retail consumer uses.” (Wikipedia, retrieved 17:25, 24 June 2009 (UTC)).
Currently, low-end commercial 3D prototypers are becoming affordable for individuals who want to "play" or schools. On oct 2011, the cheapest 3D printer we found was at $2700 from Up! Open source systems cost much less (not counting assembly time) and assembled versions cost about $4000.
According to Wikipedia (retrieved 17:25, 24 June 2009), “Prototypes made by low-end commercial machines cost around US$2 per cubic centimeter to fabricate. The RepRap Project is on track to produce a 3D prototyping machine and free and open source accompanying software that costs about US$400 to build and which can fabricate objects at a cost of about US$0.02 per cubic centimeter.”
There exist various kinds of 3D printers, e.g. Inkjet-like where layers of powder (e.g. plaster, corn starch or resins) are selectively bonded or photopolymer machines that fix liquids with an UV flood lamp.
- Some low-cost fabbers (e.g. RepRaps) include a kind of "gun" that heats up polymer plastic from a filament and then extrudes a fine stream to build things.
- Another low-cost faber (Fab@Home) uses syringes that you can fill in with Epoxy or some kinds of food. Materials are pushed down by a piston. The Epoxy comes with a resin and a hardener that have to be mixed before filling up the syringe. Malone and Lipson (2007) describe in good detail the architecture of the Fab@Home solid freeform printer.
A similar more complex procedure is called fused deposition modeling (FDM) (Montaro, 2002) and is described more precisely by Lipson et al. (2004:1030): “The process creates a sequence of thermoplastic layers from a filament wound coil that is heated and extruded through a nozzle. The trajectory of the nozzle is derived from the triangle mesh, so as to raster scan and fill solid volumes. In order to create functioning mechanisms, a second, soluble release material is placed in the gaps between the movable parts.”
3.2 Low cost 3D Printers
This article present 3D printing at its beginning in the early 2000's. Also see 3D printing for a more up-to-date article.
Very low-cost non-proprietary 3D printers are often referred to as Fabbers (although the term includes other technologies, including high-end ones). There exist several projects with a high profile in the "web 2.0 sphere". Most printers use a "hot gun" plastic extruder, but other techniques are emerging, e.g. sugar sintering in the CandyFab project.
The Fab@Home project (retrieved June 2009) “is a project dedicated to making and using fabbers - machines that can make almost anything, right on your desktop. [...] Fabbers (a.k.a. 3D printers or rapid prototyping machines) are a relatively new form of manufacturing that builds 3D objects by carefully depositing materials drop by drop, layer by layer. With the right set of materials and a geometric blueprint, you can fabricate complex objects that would normally take special resources, tools and skills if produced using conventional manufacturing techniques. A fabber can allow you to explore new designs, email physical objects to other fabber owners, and most importantly - set your ideas free. Just as MP3s, iPods and the Internet have freed musical talent, we hope that blueprints and fabbers will democratize innovation.”. Fab@Home was conceived by Hod Lipson of Cornell University and designed and implemented by Evan Malone. Current development includes more people.
RepRap is another well known project. “RepRap is short for Replicating Rapid-prototyper. It is the practical self-copying 3D printer shown on the right - a self-replicating machine. This 3D printer builds the parts up in layers of plastic. This technology already exists, but the cheapest commercial machine would cost you about €30,000. And it isn't even designed so that it can make itself. So what the RepRap team are doing is to develop and to give away the designs for a much cheaper machine with the novel capability of being able to self-copy (material costs are about €500). That way it's accessible to small communities in the developing world as well as individuals in the developed world. Following the principles of the Free Software Movement we are distributing the RepRap machine at no cost to everyone under the GNU General Public Licence. So, if you have a RepRap machine, you can use it to make another and give that one to a friend...” (What is RepRap?, retrieved 17:25, 24 June 2009 (UTC)).
This RepRap 3D printer builds the parts up in layers of plastic with the help of a custom-made Thermoplast Extruder. Version 2 “takes a 3mm diameter filament of a polymer (the single white rod coming into the picture from the top, not to be confused with the pair of white 12V supply wires), forces it down a heated barrel, and then extrudes it as a melt out of a fine nozzle. The resulting thin stream is laid down in layers to form the parts that RepRap makes. The extruder should work up to a temperature of 250o Celsius”. It works with ABS (Lego-like plastic) and polylactic acid. (Thermoplast Extruder Version 2.0, retrieved 17:30, 25 June 2009 (UTC)). In the UK, a RepRap assembly kit with everything included, is available as RapMan (2009/2010).
The next version of RepRap (RepRap Version 2.0 "Mendel") had ambitious plans: “will have multiple write heads for working with a wide range of materials in a single reprapped object, and will have the ability to embed three-dimensional electrical circuitry inside mechanical parts. Mendel is still very much in the early stages of development, but the build instructions are themselves under construction at that link.”
The CandyFab project is a 3D freeform fabrication project that works with sintering of sugar and other low-melting point materials. This project is different from Fab@Home and RepRap in two ways. The fabricator can print a much larger printable volume but with a lower resolution and you may eat the product. The creators argue that “Sugar is a particularly good medium because it's easy to obtain, low in cost, kid friendly, water soluble, non-hazardous, non-toxic, non-intimidating, rigid despite having a low melting point, and may be suitable for making objects for lost sugar (like lost wax) investment casting. We also think that it may also be possible to make interesting food with this technology.” (Sneak preview: The Evil Mad Scientist 3D Printer Project, retrieved 17:30, 25 June 2009 (UTC)).
One interesting application of the CandyFab would be to create 3D models of statistical data to be shown in presentations (e.g. a workshop or a thesis defense). After discussion, participants could eat the research results and further discuss data quality and distribution.
W.H. Oskay summarizes the procedure as follows: “When the first layer is started, there is a bed of granulated sugar. The heat gun locally melts the top surface of the bed in one point, melting the sugar at that point. The heat gun then moves to the next point, melting the sugar there. If this is done in a number of points in a row, it begins to fill in a line of melted sugar [...]. The sugar only stays molten for about 15-30 seconds after the heat gun is removed from a point. If a second line of melted sugar is added next to the first, you can begin to fill in an area with a thin layer of fused sugar. Let's suppose that you were making a cylinder-- then the first layer would just be a circle. The depth of the melt layer is controlled by the temperature, air flow rate, and hold time at each pixel location. After the first layer is finished, the bed is lowered slightly-- by an amount equal to the melt depth-- and a fresh layer of sugar is added to the top, such that the new top surface is at the same place where the original surface was. To make the next step in the cylinder, a new circle is drawn in the sugar on this layer. For each point in the circle, as the sugar in the top layer melts, it fuses to the corresponding point in the hardened sugar circle below. If we were to let the model cool and take it out of the machine at this point, you would have a solid thin disk, twice the thickness of the melt layer.”
Until recently, Solid Freeform fabbers had to be assembled by the end-user using open designs and low-level parts, i.e. many many days of bricolage. However, some fabbers now can be bought commercially as easy kits or fully assembled. E.g. in June 2009, the NextFab Store sold kits for about $3000 and assembled Fab@Homes for about $4000. Bits from Byte sold a (unassembled) RepRap kit (Version 3 - RapMan) for about £750. Read the RapMan entry for additional information. On June 2009, Cupcake from MakerBot Industries sold for £750 (unassembled). Malone and Lipson (2007) published an interesting breakdown of the cost of the model 1 fab@home 3D printer. Part costs were about $2300 USD plus about 18 hours of assembly work.
Within just three years, 3D printing became increasingly popular and as of 2011, several end-user machines are available. Prices started dropping a lot, i.e. commercial kits can be had for $1000 or less as you can see in the 3D printing article.
There also exists a low-cost Laminated Object Manufacturing engines that works with paper. Such a printer can use standard sheets of printer paper and will deposits in a pattern determined by the design. Another sheet of paper is added, and a blade then cuts away the excess paper. Such systems however, were too expensive (e.g. the Matrix 3D may sell for about $20'000).
- Cutters / plotters
- Use a small blade to cut paper, cardstock, vinyl, fabrics etc. They can be bought for as little as $300. E.g. see the list in Bart Bakker's Vinyl cutter / plotter page. A popular entry-level model is the Silhouette Cameo.
- Laser cutters and engravers
- Laser cutters and engravers can process any non-metal material (e.g. acrylic, ceramics, cork, fiberglass, glass, plastic, leather, paper, stone, wood). “Laser cutting is a technology that uses a laser to cut materials, which is used in the production line and is typically used for industrial manufacturing applications. Laser cutting works by directing the output of a high power laser, by computer, at the material to be cut. The material then either melts, burns, vaporizes away, or is blown away by a jet of gas,  leaving an edge with a high quality surface finish. Industrial laser cutters are used to cut flat-sheet material as well as structural and piping materials.” (Wikipedia, retrieved 17:25, 24 June 2009 (UTC)).
According to Bart Bakker (oral communication, dec 2011), Laser cutters are the most popular tools in Netherland's fablabs. Laser cutters can't be used in closed rooms (i.e. needing air filtering). They also are expensive, although some exciting developments are out there, in particular LAOS, i.e. an open source replacement board and software that could be use to drive cheap chinese hardware.
- Laminated Object Manufacturing (LOM)
- “Laminated object manufacturing (LOM) is a rapid prototyping system developed by Helisys Inc. (Cubic Technologies is now the successor organization of Helisys) In it, layers of adhesive-coated paper, plastic, or metal laminates are successively glued together and cut to shape with a knife or a laser cutter.” (Wikipedia, retrieved 17:30, 25 June 2009 (UTC))
- Plasma cutters
- “Plasma cutting is a process that is used to cut steel and other metals of different thicknesses (or sometimes other materials) using a plasma torch. In this process, an inert gas (in some units, compressed air) is blown at high speed out of a nozzle; at the same time an electrical arc is formed through that gas from the nozzle to the surface being cut, turning some of that gas to plasma. The plasma is sufficiently hot to melt the metal being cut and moves sufficiently fast to blow molten metal away from the cut. Plasma can also be used for plasma arc welding and other applications.” (Wikipedia, retrieved 17:25, 24 June 2009 (UTC)).
Plasma cutters come in various sizes and are available from $3000.
- Water jet cutter
- “A water jet cutter is a tool capable of slicing into metal or other materials using a jet of water at high velocity and pressure, or a mixture of water and an abrasive substance. The process is essentially the same as water erosion found in nature but greatly accelerated and concentrated. It is often used during fabrication or manufacture of parts for machinery and other devices” (Wikipedia, retrieved 21:22, 23 June 2009 (UTC).)
According to Wikipedia, water jets can cut with a with of about 1mm and can cut materials such as rubber, foam, plastics, composites, stone, glass, tile, metals, food, paper and much more. Also, water jets can cut material without much harming or changing the materials' structures since there is no heat. I also can be considered a green technology, since it doesn't produce harmful waste. Water and abrasives can be recycled.
- Computer-controlled ShopBots are do-all tool for precisely cutting, carving, drilling or machining all kinds of things from all kinds of materials. “A ShopBot is like a large plotter that moves pens around the surface (in X and Y axes) to create a drawing. Only a ShopBot moves a cutter around a big table (X and Y axes) and moves it up and down as well (Z axis) allowing it to make 3D movements and cut all sorts of shapes. The cutter looks like a drill bit and is spun by a motor called a router or spindle. Unlike a drill bit, a router bit is designed to cut from the sides as well as the tip. By precisely moving the cutter through material, a ShopBot CNC tool can create virtually any pattern or shape and will do it in materials such as wood, plastic, foam, aluminum and many composites.” (What's All the Excitement About ShopBot CNC Tools?, retrieved 17:30, 25 June 2009 (UTC)). Prices start at $7500.
- Combined mill / cutter / printer
Various technology can be combined into 3-axis CNC robots. As an example: “micRo is a unique system which can be used for both additive (printing) and subtractive (milling, cutting) fabrication. It is a precise, modular tool which allows you to create complex objects out of wood, metal, plastic and more”
3.4 Selective Laser sintering
“In the Selective Laser Sintering (SLS) process, three-dimensional parts are created by fusing (or sintering) powdered thermoplastic materials with the heat from an infrared laser beam.” (Selective Laser Sintering (SLS), SLS Prototype, retrieved 17:25, 24 June 2009 (UTC)).
- “Selective laser sintering is an additive rapid manufacturing technique that uses a high power LASER (for example, a carbon dioxide laser) to fuse small particles of plastic, metal, ceramic, or glass powders into a mass representing a desired 3-dimensional object. The laser selectively fuses powdered material by scanning cross-sections generated from a 3-D digital description of the part” (Wikipedia, retrieved 17:25, 24 June 2009 (UTC)).
This technology if fairly complex and expensive compared to low-end 3D printers that extrude plastic. However, Markus Kayser in his SolarSinter demoed a cool bricolage version that sinters sand with solar energy. Also, commercial laser sintering printers should probably soon be available for less than 10K. (dec/2011).
3.5 Stereolithography (SLA)
Stereolithography (or photopolymerization) “is a common rapid manufacturing and rapid prototyping technology for producing parts with high accuracy and good surface finish. A device that performs stereolithography is called an SLA or Stereolithography Apparatus.” (Wikipedia, retrieved 17:25, 24 June 2009 (UTC)).
SLA is too expensive for fab labs (between $100,000 and $400,000)
3.6 CNC mills
A milling machine (fr. "fraiseuse") is a machine tool used for the shaping of metal and other solid materials. It uses rotating cutters to cut stuff from a workpiece. In more sophisticated milling machines, both the cutters and the workpiece can be rotated in three axis.
3.7 CNC Hobby Mills
- hobby milling
- Shopbots above
A whole variety of hobby mills are now available and work with softer materials, e.g. the Roland iModela iM-01 Hobby Mill. According to the product announcement page, retrieved 14:33, 7 December 2011 (CET), the iModela is an inexpensive (about $1000), easy-to-use desktop device that mills wax, foam, balsa wood and plastic materials commonly used in craft and hobby projects. The iCreate web site includes a few sample designs plus other support materials. This model can read IGES, DXF and STL and only works with Windows.
3.8 Computer controlled embroidery machines
A computer-controlled embroidery machine allows to print out complex designs, e.g. embroidery.
3.9 3D Scanners
An alternative to designing objects is to scan them. Rotating 3D scanners can be bought for about $3000, but hand-held Laser 3D scanning costs next to nothing (see the links section below for pointers).
3.10 Electronic kits
See also: Embedded systems building blocks, often that kind of hardware is specially made for education.
Arduino “is an open-source electronics prototyping platform based on flexible, easy-to-use hardware and software. It's intended for artists, designers, hobbyists, and anyone interested in creating interactive objects or environments.
Arduino can sense the environment by receiving input from a variety of sensors and can affect its surroundings by controlling lights, motors, and other actuators. The microcontroller on the board is programmed using the Arduino programming language (based on Wiring) and the Arduino development environment (based on Processing). Arduino projects can be stand-alone or they can communicate with software on running on a computer (e.g. Flash, Processing, MaxMSP).” (Arduino Home Page, retrieved 17:25, 24 June 2009 (UTC)).
OpenMoko is is a project dedicated to delivering mobile phones with an open source software stack. Openmoko is currently (June 2009) selling the Neo FreeRunner phone to advanced users and will start selling it to the general public as soon as the software is more developed.
“The Openmoko stack, which includes a full X server, allows users and developers to transform mobile hardware platforms into unique products. Our license gives developers and users freedom to cosmetically customize their device or radically remix it; change the wallpaper or rebuild the entire house! It grants them the freedom, for example, to transform a phone into a medical device or point of sale device or the freedom to simply install their own favorite software. Beyond freeing the software on our devices we have also released our CAD files. And at LinuxWorld 2008, we announced the release of the schematics for our products.” (Introduction, retrieved 17:30, 25 June 2009 (UTC)).
- The Make controller kit
The Make Controller Kit sponsored by Make magazine, is an open source hardware solution for hobbyists and professionals to create interactive applications. It supports desktop interfaces via a variety of languages such as Max/MSP, Flash, Processing, Java, Python, Ruby, or anything that supports Open Sound Control (OSC).
5.1 Fab Lab portals and overviews
- FabCentral, The Center for Bits and Atoms, MIT. Inventor of FabLab classes.
- The FabLab@School, created by Prof. Paulo Blikstein at Stanford University is a new type of digital fabrication lab especially designed for schools and children, with several special characteristics.
- High-Low Tech group (MIT Media Lab). Explore the intersection of computation, physical materials, manufacturing processes, traditional crafts, and design.
- Wikipedia articles
- Desktop manufacturing (Wikipedia)
- Digital fabricator (Wikipedia)
- Fabber (Wikipedia).
- Solid freeform fabrication (Wikipedia, overview).
- On the future of invention, by Neil Gershenfeld, Seedmagazine, June 24, 2009.
- Desktop manufacturing - Helping poor-world inventors, The Economist, Mar 23 2005.
- What is a Fabber?, An Introduction to the 21st Century, Ennex Corporation, retrieved 17:25, 24 June 2009 (UTC).
- The Hacker Ethic and the Spirit of the Information Age by Pekka Himanen (book excerpt)
- Mitch Altman on "The Hackerspace Movement" (TEDx talk video, Brussels, 2012).
- Models (designs in some format that can be "printed")
- New objects (includes visualization and downloadable files)
- 3dprintables.org (excellent wiki includes educational objects, often with links models on external sites)
- thingiverse (a place to share digital designs that can be made into real, physical objects). Many interesting objects for RepRap machines like the RapMan
- Open Prosthetics Project is producing useful innovations in the field of prosthetics and freely sharing the designs
- Opendesk (Furniture)
- Instructables Instructions on how to build various things
- Hardware models
5.3 3D printing
See 3D printing
5.4 Numerical control
- Numerical control (Wikipedia)
5.5 Cheap 3D scanning
- David Laserscanner, A complete system with calibration panels, camera, red laser and software is about 350 Euros. But you also can buy just parts, e.g. the 90.- red laser and build the rest yourself. The software includes scanning, interpolation, some editing and shape fusion with various methods. To the right you can see a picture of one scan, i.e. our first attempt using this system - Daniel K. Schneider 17:36, 8 December 2009 (UTC)
5.6 Other Fab Lab hardware
Laser and plasma cutters
- How Plasma Cutters Work (Howstuffworks.com).
- The CNC mill project
- Lumenlab's lowcost 3D CNC milling/cutting/printing systems
- Guerrilla guide to CNC machining and resin casting Good, detailed tutorial.
- Shopbottools.com. E.g. have a look at the portfolio of projects (including school contexts). Prices are from $7500 to $20K.
Selective Laster Sintering (SLS)
- Stereolithography (SLA), Castle Island Co., retrieved 17:25, 24 June 2009 (UTC)
In order to avoid hassles with repairs and an such, it is probably a good idea to buy in your own country. E.g. in Switzerland, there is the dshop (an Arduino/OpenMoko vendor)
- Arduino (Home page)
- YouTube Videos
- Most Arduino products are I/O Boards on top of which one can insert shields (extensions). Various parts range from cheap to $400.-. See the vendor page. Some OpenSource 3D fabbers use these boards.
- There exist many Arduino clones (since the design is open source). See the Wikipedia page.
- Arduino (Wikipedia).
- The Making of Arduino IEEE Spectrum, By David Kushner / October 2011
- Openmoko is a project dedicated to delivering mobile phones with an open source software stack. It can run with various OSs, e.g. it got official Debian support and also runs with Android.
- OpenMoko (Home page)
- TechTree review of Freerunner
- OpenMoko Store. The FreeRunner (A6) model is sold for $250.
- Make Controller Kit
5.8 New technology mags, blogs and communities
(Closely or loosely related to fablabs)
- Make the future (Waag society/ United Nations Development Programme, UNDP)
- SEED magazine
- NewScientist (tech section)
- FabLabs - a space for those tinkering with Fab Labs
- Thingiverse. Is a place for you to share your digital designs with the world.
- Hacked Gadgets
- NYC Resistor is a hacker collective with a shared space located in downtown Brooklyn.
- Next Big Future (blog)
- Pasta&Vinegar, Nicolas Nova, LiftLab (mind/tech bazar from outer space blog).
- The LIFT conference series (organized by our friends from LiftLab).
- Make magazine (The most popular commercial geeky do it yourself magazine)
- MakingThings (project page)
- Low Tech Magazine. for ideas
- Fab ✱ Manchester 2012 (conference)
- FabLearn 2012
- OpenSourceEcology.org, high-performance, modular, do-it-yourself, low-cost platform - that allows for the easy fabrication of the 50 different industrial machines that it takes - to build a small, sustainable civilization with modern comforts.
5.9 Fab Labs
- Fab Lab Central (MIT, USA). Includes pointers to many FabLabs world-wide.
- Fablab Amsterdam (Netherlands)
- Laboratory for Freeform Fabrication (UTexas, USA).
- FabLab Squared (France)
- miniFABLAB (Netherlands)
- Creating Living Lab (Hochschule Luzern, Switzerland) and Fablab (Luzern)
- Bereza, Marek (2007). Rise of the Replicator: The Evolution of Media Into The Tangible. The Royal College of Art, Master thesis. PDF
- Blikstein, Paolo, Sylvia Libow Martinez, and Heather Allen Pang (eds). (2016). Meaningful Making: Projects and Inspirations for Fab Labs + Makerspaces, CONSTRUCTING MODERN KNOWLEDGE PRESS, Print book ISBN: 978-0- 9891511-9-1, e-book ISBN: 978-0- 9891511-2- 2, http://fablearn.stanford.edu/fellows/page/meaningful-making-book.
- Breen, Jack; Robert Nottrot, Martijn Stellingwerff (2003). Tangible virtuality--perceptions of computer-aided and physical modelling, Automation in Construction, Volume 12, Issue 6, Design e-ducation: Connecting the Real and the Virtual, November 2003, Pages 649-653, ISSN 0926-5805, DOI: 10.1016/S0926-5805(03)00053-0.
- Burns M., (1995) The Freedom to Create, in Technology Management, Volume 1, Number 4 http://www.ennex.com/~fabbers/publish/199407-MB-FreedomCreate.asp
- Bowyer, Adrian (2007) Why Accountants are Dull and Guitarists are Glamourous - The End of Intellectual Property, Time Compression Technology Magazine, volume 15, issue 3, p33 (2007).
- Bowyer, Adrian (2007)- The Self-replicating Rapid Prototyper ─ Manufacturing for the Masses, Invited Keynote Address, Proc. 8th National Conference on Rapid Design, Prototyping & Manufacturing, Centre for Rapid Design and Manufacture, High Wycombe, June 2007. Rapid Prototyping and Manufacturing Association, ISBN-13: 978-0948314537 (2007).
- Bowyer, Adrian (2007). Breed your own Design, Icon Magazine, volume 52, October 2007.
- Burry, Mark; Michael Ostwald, Peter Downton, Andrea Mina, (2007) Homo Faber - Modelling Architecture, Sydeney: Archadia Press, ISBN 9780977571123. PDF (See also the video: Thinking modeling making
- Ceccarelli, M., (Ed.) 2000, International Symposium on History of Machines and Mechanisms, Proc. HMM Kluwer Academic, Dordrecht.
- Cohen D. L., Malone E., Lipson H., Bonassar L., (2006) "3D direct printing of heterogeneous tissue implants", Tissue Engineering, Vol. 12, No. 5: 1325-1335
- Editors' Review (2005). Desktop Factories - FAB The Coming Revolution on Your Desktop -- from Personal Computers to Personal Fabrication By Neil Gershenfeld, Basic Books, Business Week, May 2 2005.
- Evil Mad Scientist Laboratories (2007). Solid freeform fabrication: DIY, on the cheap, and made of pure sugar, http://www.evilmadscientist.com/article.php/candyfab, retrieved 17:30, 25 June 2009 (UTC).
- Flichy, Patrice (2010), Le sacre de l'amateur : Sociologie des passions ordinaires à l'ère numérique, Seuil.
- Gershenfeld N. Think Globally, fabricate locally, PrincipalVoices.com. PDF (reprint)
- Gershenfeld, Neil, A., (2005) FAB: The Coming Revolution on Your Desktop – From Personal Computers to Personal Fabrication, Basic Books, ISBN 0-465-02745-8.
- Institute of the Future (2009). The future of making, PDF
- Kuznetsov, Stacey and Eric Paulos (2010). Rise of the Expert Amateur: DIY Projects, Communities, and Cultures, Proceedings of ACM NordiCHI 2010: Extending boundaris, Reykjavik, PDF preprint
- Jenweill, Mark, Fab Labs unshackle imaginations, USA Today, 11/6/2005.
- Moon, F. C., 2003a, Franz Reuleaux: Contributions to 19th Century Kinematics and Theory of Machines, Applied Mechanics Reviews, American Society of Mechanical Engineers, N.Y.
- Lillard, A. and Else-Quest, N. (2006) The Early Years: Evaluating Montessori Education Science, Vol. 313. no. 5795, pp. 1893 - 1894
- Lipson H., Moon F.C., Hai J., Paventi C., (2004) 3D-Printing the History of Mechanisms, ASME Journal of Mechanical Design, pp. 1029-1033. PDF
- Lipson H. (2005a) "Homemade: The future of Functional Rapid Prototyping", IEEE Spectrum, feature article, May 2005, pp. 24-31 http://www.mae.cornell.edu/ccsl/papers/Spectrum05_Lipson.pdf
- Lipson H. (2005b). "Homemade: The future of Functional Rapid Prototyping", IEEE Spectrum, feature article, May 2005, pp. 24-31.
- Lobovsky M., Lobovsky A., Behi M., Lipson H. (2008), "Solid Freeform Fabrication of Stainless Steel Using Fab@Home", Proceedings of the 19th Annual Solid Freeform Fabrication Symposium, Austin TX, Aug 2008. PDF
- Malone, E. (2006). Faxing Artifacts: The promise of three-dimensional scanning and rapid prototyping of archaeological materials, International Council of Archaeo-Zoologists – ICAZ 2006, Mexico City, Mexico, 23-28 Aug 2006, Poster.
- Malone E., Lipson H., (2006) "Freeform Fabrication of Ionomeric Polymer-Metal Composite Actuators", Rapid Prototyping Journal, Vol. 12, No. 5, pp.244-253.
- Malone E., Lipson H., (2007) "Fab@Home: The Personal Desktop Fabricator Kit", Rapid Prototyping Journal, Vol. 13, No. 4, pp.245-255. PDF. (This is to our knowledge the best easy to read article explaining most aspects of a desktop fabricator).
- Malone E., Rasa K., Cohen D. L., Isaacson T., Lashley H., Lipson H., (2004) "Freeform fabrication of 3D zinc-air batteries and functional electro-mechanical assemblies", Rapid Prototyping Journal, Vol. 10, No. 1, pp. 58-69.
- Malone, E., Berry, M., Lipson, H., (2008), "Freeform Fabrication and Characterization of Zinc-air Batteries", Rapid Prototyping Journal, Vol. 14, No. 3, pp. 128-140. PDF
- Apoorva Mandavilli (2006). Appropriate technology: Make anything, anywhere, Nature 442, 862-864 (24 August 2006). doi:10.1038/442862a.
- McMains, S. (2005). "Layered Manufacturing Technologies", Comm. ACM, Volume 48, Number 6, pp 50-56.
- Mikhak, Bakhtiar; Christopher Lyon, Tim Gorton, Neil Gershenfeld, Caroline McEnnis and Jason Taylor (unknown). Fab Lab: An Alternate Model Of Ict For Development, PDF
- Milanese, Fiona (2006). FABLab allows you to create the gadget of your dreams, Science in Africa. August 2006, HTML
- Montaro, M. et al., 2002, “Material Characterization of Fused Deposition Modeling (FDM) ABS by Designed Experiments,” University of California, Berkeley Report.
- Sells, Ed; Zach Smith, Sebastien Bailard, and Adrian Bowyer (2007). RepRap: The Replicating Rapid Prototyper - Maximizing Customizability by Breeding the Means of Production. Extended abstract in Proc. Mass Customization and Personalization Conference, MIT, October 2007.
- STEEG, T., 2008. Makers, Hackers and Fabbers: what is the future for D&T? IN: Norman, E.W.L. and Spendlove, D. (eds.). The Design and Technology Association International Research Conference, [Loughborough University, 2-4 July]. Wellesbourne : The Design and Technology Association, pp. 65-73. 08.pdf PDF - HTML Abstract. (includes throughts about Design and Technology teaching)
- Thomson, Clive (2008). Build It. Share It. Profit. Can Open Source Hardware Work? Wired Magazine, 16:1
- Touchgraphics, Inc. (2009). An Interactive Talking Campus Model at Carroll Center for the Blind, Final Report, center talking campus model final report low.pdf PDF. (Objects were created with a commercial 3D printer).
- Vilbrandt, T., Malone, E., Lipson H., Pasko, A., (2008) "Universal Desktop Fabrication", in Heterogeneous Objects Modeling and Applications, pp. 259-284. DOI: 10.1007/978-3-540-68443-5 (Access restricted)
- Adrian Bowyer's Publications
- Evan Malone's publications
- Cornell Computational Synthesis Laboratory publications
- Craft Technology publications (University of Colorado, Boulder)