As For The Uses Of 3D Printing, There Have Been Many Revolutionary

As 3D printing transitions from commercial manufacturing use to personal private use individuals will have the ability to print any design. Products can range from a pair of shoes to complicated engineering designs, life-saving devices, prosthetic limbs and weapons that pass airport security. In the future we will likely see printable medications and

3D printing uses a process known as "additive" manufacturing. That means that the solid, three-dimensional object constructed will be made by adding the desired material in layers. The first successful outcomes of additive printing occurred back in the 1970’s. One of the advantages of using additive printing is that it takes less time than having to get a big enough piece of material and then making a mold before starting the process.(Additive) Those both also add to cost which is saved using this process. Also, there is a

Imagine, you are driving down the road in your vehicle when abruptly you are in an accident and wake up in the hospital. The doctor informs you that you have lost your nose and there is no solution for it. Luckily, in this day and age, there are options and 3d printing is one of those. For the majority of people, when they consider 3d printing, they are not envisioning the replacement of a nose or ear, yet are reminiscing in regards to toys, gadgets and various mechanical objects bolted together. In fact, there are researchers around the world vigilantly working on just that, the printing of human organs. This raises the question, is printing a replacement nose, a new liver, skin or even a heart a methodology that is safe and effective

For my regenerative medicine report I chose 3D organ printing, also called 3D Bioprinting. More specifically, I focused on the 3D printing for Kidneys. 3D printing of organs works by using stem cells to create tissue that can be used to fix a part of an organ, or many tissues that can create a whole organ. (ed.ted.com) The printers, in collaboration with computer-assisted design, would print out ultra thin layers of tissue to be layered on top of one another to form organs. (asme.org) There are also 3D printers that were made that can print stem cells. (livescience.com) This way, instead of extracting totipotent embryonic stem cells, or having to settle for pluripotent adult ones, there can be stem cells that are still totipotent

The industry requires biocompatible materials (Bioink), hardware (Bioprinters) and software (CAD). Each of this industry has a potential to grow into the separate niche industries. Ability to print with the different kinds of materials can enhance the versatility of the 3D bioprinting. The 3D bioprinting is emerging as an area which is garnering attention from a lot of academicians.

The idea of eliminating that and giving people the ability to create their device with the 3D printing bridges the gap and gives them direct access to the device as needed. Although, we cannot neglect the role and the impact that medical experts have played over the years from working with different amputees and creating prosthetics that not only best fit, but also strives to remove the stigma that comes with being an amputee. Medical experts play an important role in the fitting of prosthetic because they are trained and experienced. This isn’t a one fit all situation, a certain technique is required by experts to ensure patients get the best fit that suits them. Nevertheless, the shift from the medical experts to empowering patient to print their own 3D body part isn’t a loose situation since medical experts have been unable to effectively meet the demand of everyone’s need, but they still need to work together. Moreover, who is the best judge as to what a good fit is other than the

Three-dimensional (3D) printing, also known as rapid prototyping (RP) and additive manufacturing (AM), is a transformational technology that is anticipated to revolutionize the healthcare industry. Current and projected healthcare applications of 3D printing include: customized prosthetics; personalized surgical implants; drug delivery, pre-operative and educational anatomical models; and tissue and organ engineering. The implications of 3D printing are expected to be considerable and include benefits such as: improved efficiency and reduced costs; personalized medicine; and increased collaboration . The implementation of this technology does not come without significant challenges, however. The healthcare industry is one of the most regulated in the Unites States, hype can contribute to idealized expectations, biocompatible materials must be identified, and intellectual property may be difficult to protect as a result of 3D printing. This article reviews current advances in 3D printing and the current and projected healthcare applications that will improve quality and decrease costs.

There are both benefits and disadvantages of the 3D printer. As for benefits there are: bio-manufacturing, low cost of manufacturing, quick production, and less waste. On the other though the disadvantages are: Guns, drugs, safety, and criminal uses. When it comes to disadvantages some of these are atrocious. Not that long after the 3D printer came out some people tried making guns with the 3D printer, which is highly unsafe in the wrong hands. If we can create human organs, why can’t the 3D printer make drugs? Also are the plates we make with the 3D printer safe to eat off of? Another thing to think about is the criminal uses, most recently some criminals in Texas printed an ATM scanner and put it on the sides of ATM’s to take money

All the techniques contain advantages and disadvantages, but a problem that needs solving before used clinically, is advancing the printer technology. A 3D-printed organ must contain the ability to perform all the functions of a real organ as

3D printers are not just meant for fun at the home, but they can save lives. That’s right 3D printers are starting to make their way into the hospitals, to help develop ways they can save lives. “Realistically, we 're going to be living to 100 ...110. With bio-printed organs, living to 110 won 't be anything like living to that age today," contends Jack Uldrich, a technology trend expert. "We 're already printing skin, kidneys, a replica of a beating human heart. If a person loses a limb, we 'll be able to print, layer by layer, a replacement. It 's theoretically possible.”(Federico-O 'Murchu). The average life expectancy is around 80 years old, with the 3D printers they are able to increase the lifespan of a human by almost 150 percent. Regarding the difficulty of creating human body parts varies on which part needs to be produced. Take creating an ear for example, that is much easier than creating a fully function heart. The process which is used to create an ear is slightly different from creating an organ. The labs create the gelatin like cartilage material, they then use a 3D printer to lay the matter out in the shape of an ear. The now 3D object is covered in cells and kept in a temperature controlled room to ensure the cells will spread and become healthy enough to be planted on to the host body. “At the other end of the longevity

3D-Printing has become a rising industry within the technological world and becomes more accessible by being cheaper to produce and more efficient to print objects. The materials that can use to print can range from plastic to food, however, a new material is being used to create objects: cells are now being used 3D-Print organs to reduce the number of people on the waiting list for organ transplants and ultimately to reduce death. This may seem too good to be true but researchers have to handle the hype among the people and perform research in secrecy due to areas having laws prohibiting the use of 3D-Printers.

Medical practitioners use 3D printers in the production of medical printers. Such 3D printing successes involves the creation of plastic limb prosthetics and the replacement of hips and bones. A Recent study reports that 3D printing shows the shift of the medical manufacturing sector due to the low cost and small sized printers that promises to enhance technology accessibility thus allowing researchers and doctors to create personalized devices for their patients. For example a patient who has developed an infection of experienced pain from non-customized prosthetic can use imaging technology that shows the shape and movements of various parts of the human body.

Where do you think the future of medicine will be in the next decade? With diseases and illnesses advancing, technology has been improving and advanced innovative ways have been surfacing. Something that has modernized our way of life without even realizing it is a printer. Do you ever foresee that printers could other than put ink on a piece of paper? Three-dimensional printing is revolutionizing our modern day lives in our own selves as we speak. Although there are several types of 3D printing, one version that has caught the public’s attention is 3D medical printing, or also known as bio printing. This emerging technology will enable future 3D printers to produce synthetic human tissue, and eventually human organs and transform how doctors and patients view medicine.

This application of 3D printing to design such prosthetics is ever-expanding and has some exciting prospects.

Since Chuck Hull’s inventions of the modern 3D printer in 1984, the artificial manufacturing of three-dimensional objects for medical applications is expanding rapidly and, in the near future, is expected to revolutionize the healthcare industry. This technology built a foundation for engineers to create digital models on a computer and have a physical 3D rendering of the object to a doctor within hours. The main uses for 3D printing in the medical field include the creation of personalized prosthetics, anatomical models specific to each patient, tissue and organ fabrication, and much more. There are also an abundance of research applications such as the delivery and dosage for pharmaceutical drugs as well as the discovery of new ones.