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Trace the development of 3d printing
Trace the development of 3d printing
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Until recently, 3D printing was only utilized by product designers and hobbyists working primarily with plastics and was not available to the mass market. With the recent price drop of 3D printers and availability of 3D printing materials, the popularity of 3D printing has dramatically increased in the last couple of years. It has been estimated that 3D printing could generate an economic impact of $230 billion to $550 billion per year by 2025 (McKinsey Global Institute, 2012).
Much like an inkjet printer, a 3D printer “prints” a set of plans on a computer by using “additive manufacturing.” The additive manufacturing process builds objects layer-by-layer rather than through molding or subtractive techniques (such as machining) (McKinsey Global Institute, 2012). Additive manufacturing is attractive for producing items that are hard to find or when only a few like items are needed because the cost of production remains the same whether someone prints one or many, or if the item is old or new.
To determine if 3D printing can be the next big disruptive technology, we must look at the advantages of 3D printing, current and future capability of 3D printing and what industries would most likely be disrupted by 3D printing. When these questions have been satisfactorily been answered we can further ask:
• What are the risks of 3D printing? How might this product fail?
• What can be done to make 3D printing succeed?
The main advantage of 3D printing is that a low number of goods can be produced at a relatively inexpensive cost, as compared to traditional manufacturing, which typically requires higher volume to lower costs (Grynol, 2013). 3D printing can skip many traditional manufacturing steps and go directly from an idea to a fin...
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...es in virtually every industry must be fast, flexible and capable to understand the implications that 3D printing will have on their businesses (Grynol, 2013). This is why it is imperative that manufactures start developing their 3D printing capabilities now and help promote innovation to keep the company moving forward.
In conclusion, 3D printers have the ability to be a force in disruptive technology much like the internet did in the 1990’s. The combination of lower cost of 3D printers and advances in 3D printing technology is fueling its popularity in just about every industry from medical to construction. 3D printers could change the way we buy products in the future. Many of the products we buy today will end up being download and printed on a personal 3D printer. It is estimated 3D technology could have up to $550 billion economic impact by the year 2025.
Every business has an evolutionary clock speed measuring the rate of change in products, processes and capability. At the core of everything is the organizations ability to design a sustainable supply chain. When this becomes an organizations core competency, they are then positioned to continually win the temporary advantage. By simultaneously working to improve products, process design/creation and supply chains (three dimensional concurrent engineering), a company can drive the “turn of the helix” thus changing the clock speed for the industry.
It is predicted that humans will come a long way throughout the 2st century, hopefully eliminating the possibility for amputees to have a disadvantaged life. 3D printing is set out to be one of the most revolutionary technologies of this decade and will continue to impress on the biological front. Thanks to the use of 3D printing, new limbs can be printed with exceptionally accuracy for a infinitesimal cost. Even in the year 2017, new limbs can be printed for less than $100 USD per person making it a cheap alternative to more “advanced” prosthetic
3D printing, the process of making 3-Dimensional solid objects from a digital model, is now a turning into a revolution. With the price, stretching from many thousands to the cheapest, at $350, this technology can be used in the simplest boutiques and labs to the largest of industries. Mainstream media is only now popularizing 3D printing, although it has been around for decades. Being able to print absolutely anything, with almost any industrial material, it has already set up many debates for a positive or negative future.
The field of bioprinting, using 3D printing technology for producing live cells with extreme accuracy, could be the answer to many of the problems we as humans face in the medical field. It could be the end to organ waiting lists and an alternative for organ transplants. In 3D printing technology lies the potential to replace the testing of new drugs on animals. However, the idea of applying 3 dimensional printing to the health industry is still quite new and yet to have a major impact. Manufacturing working 3D organs remains an enormous challenge, but in theory could solve major issues present today.
The second issue is new product designs. Applied Materials can control the cost altogether by importing lower cost materials from overseas, shifting its R&D departments to lower cost countries, and hiring offices overseas in India, China, or Japan. As Porter states in his paper, a company can only gain advantage over other companies by keeping its costs low and keeping its products unique. To keep the products unique, Applied Materials can also increase their R&D investments to develop more innovative new products. This will lead to continued success of the company. In 2015, the company introduced its 2018 financial model that forecasted global wafer equipment spending in the $33.5 billion range. One of the main challenges Applied Materials faces is creating innovative products that are compatible with the latest technology; this is why it is important for Applied Materials to increase the cost of R&D. Because Applied Materials is in an industry that is always changing, it is necessary to look beyond existing possibilities and continue exploring better possibilities for their firm. The amount Applied Materials will save from importing from overseas or from cheaper labor overseas can be used to invest towards the R&D for everlasting unique
3D Printing: Every year the 3D printing equipment becomes more advanced and user friendly. 3D printing goes hand in hand with e-commerce. The ability to purchase an item online and simply print it out at your home and office may eventually eliminate the need for large numbers of traditional stores, and lower overhead costs. Eventually, smaller product inventory will be needed, since people can print the items at home. This is of course a future possibility, none the less, it should be considered a viable opportunity.
Due to my experience in the Hawker group, I want to continue doing additive manufacturing. I am interested in working in the additive manufacturing unit at Lawrence Livermore. I am interested in continuing working with photopolmerization 3D printers but also want to expand my horizon by exploring composites and metals. I spoke with Dr. Monica Moya at a conference about 3D printed cells. It would be intersting to integrate biopolymers to allow tissue scaffolding to these 3D printed cells. I also read that lawrence livermore is the first lab that successfully printed carbon nanofiber using direct ink writing. I know my previous experience with a novel 3D printer will be helpful for building new revolutionary additive manufacturing methods.
In 1983, the first 3D printers were created, and began a revolution in the technology world. These printers are just starting to reach their potential, and can be used in almost every field of work that exists. Just recently 3D printing has started to affect the medical industry and they can be used in many ways. One of these ways is by 3D printing organs made from your own cells. Many people believe that this is just science fiction, but recent developments show that 3D organ printing is not too far away. Right now in the US and countries all around the world there is an enormous shortage of organs and 3D printing could help to solve this crisis.
These requirements might seem obvious at first, yet it is exactly the demand and supply on each one of them that causes the limitations and control of this technology. The 3D printer is no longer an equipment that can only be found in a scientific lab, but people can buy it on Amazon with the price from 600 to 2000 dollars. Moreover, there are numerous companies which are starting to invest new functions upon the 3D printer such as the three types of 3D printers that have been advertised in the “Top 3 Best 3D Printers You Must Have” video: “the Tiko, the Palette, and the Moonray”. For instance, the Tiko printer is a new type of “uni-body” 3D printer which prevents the unstable printing problem caused by the traditional “separate three-piece rail frame”. Also, its 1 kg rolls, large “internal filler” and the “close-build chamber” also promises the project to be more “reliable and accurate”.
The Distressed Communities Index of 2017 reports that “one in six Americans lives in an economically distressed community (Fikri & Lettieri, 2017, 9).” That is over 52 million people. This is problematic because living in economic distress can have serious consequences. Many distressed communities have a very low standard of living and community members often experience both mental and physical health problems. Additionally, living in economic distress can have a negative impact on relationships. The situation is such that many people wonder why the poor don’t simply abandon these distressed communities. In fact, many feel that “the proper response to dwindling rural towns and impoverished communities is to urge residents to leave (Jones,
4D printing offers the ability to make things that literally pull themselves together. The technology could also create objects that last longer than their 3D-printed counterparts and adapt to specific conditions on command. 4D printing is relay about using a 3d printer to print self requfingering programmable material. For example you have a non-living object that can change his shape and behavior over time kind like a robot but no microprocessors, in fact something that looks like a plastic. Skylar Tibet’s, the man who came up with whole idea has gone even fodder; he created a programmable sheet material. It look like a plastic, that in combination with the water it could change the shape in the cube. And the cube is just a beginning. It will be a million of shapes. It could be so useful, not just on the Earth but in the orbit as well. This idea could change the world, and living on it. Imagine you could just print your furniture. An...
Additive manufacturing technology, more commonly known as 3D printing, is changing the world as we know it. Within the last few years, the 3D printing revolution has pioneered a new way of hyper-local manufacturing, allowing for the production of new things that were previously impossible to make. The rapidly evolving technology is making people wonder, “What will be next?” Avi Reichental, the President and CEO of 3D Systems, is the man with the answer. As the owner of the world’s first and largest 3D printing company, Reichental is on the forefront of 3D printing. In the TED Talk “What’s next in 3D printing,” Reichental advocates 3D printing technology as a way to propel society into the future while also connecting people to their heritage.
The technology and complex foundation of additive manufacturing (AM) or more commonly known as 3D printing is still being widely explored through trial and error processes to improve this innovative field. Consumer goods such as clothes, food, decoration, household objects and tools, fragrance and so much more has good prospect within the spectrum of AM applications. The 3D printing machine enable industrial designers, mechanical engineer, packaging designers, graphic artists, marketing staff, fashion designers, interior designers and the like to create prototypes efficiently. How is timing more efficient with AM? Time to market shrink significantly as the 3D printer help designers and engineer bring their creation to life swiftly. All matters of aesthetics and functionality can be seen and reformed for optimal quality with AM.
The topic I have selected for my essay will be on 3D printing in education, I chose this emerging technology because of my place of work and how 3D printing may be involved their within the next few years. This would require me to research how 3D printers work and how to operate them. I also believe that having 3D printers in schools will generate a new wave of creative children in the future. In this essay I will be showing how a 3D printer works and how the machines operate. I will be providing example on why I think 3D printing is important for education, as well as showing what hurdles 3D printing has to overcome in regards to Intellectual property rights and the legality of what you can and cannot print. In this essay I am going to point out the advantages of what a 3D printer can achieve for the future and how it can possibly shape the way we educate our children.
Advanced CNC fabrication tools and 3D printing machines have made notable improvements in the construction industry. The benefits of this new approach have been developed over many years to increase...