Richard Seymour : An Experimental Operation For Patients With Very Little Hope Of Survival Essay

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

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.

In a study conducted through the U.S. Department of Health and Human Services on “average 79 people will receive an organ each day; however, an average of 22 people die each day” waiting for transplants that cannot take place because of the shortage of donated organs (U.S. D.H.H.S). The average amount of patients waiting for an organ can reduce to zero with the continued development of 3-D printers. 3-D printing is a process of making three dimensional solid objects from a digital file. The digital file is uploaded onto a computer software, and then the 3-D printer prints the digital file out onto different materials. The materials include plastic, resin, nylon, sandstone. The finish products become replicas of the digital file, and what was an idea is now a reality. Therefore, 3-D printers will one day be the future of organ transplants because over the past twenty years the technology industry has rapidly grown into the focal point in society. From advancement in communication, to the medical field, science and technology has shaped this world today. Thus, the American Government should invest more money into the medical field budget because the research conducted on new technology (3-D Printers) leads to more lives saved, and expands the opportunity of future medical breakthroughs.

Secondly, advanced 3D printing applied to the medical field can be utilized in an Engels non capitalist technology drive society to impact the area of safety. In this utopian society, advanced 3D printing will have the capabilities to print synthetic tissue and organic tissue that can bond to the patient’s cells. In effect, this helps the patient’s wound heal faster. This type of advanced 3D bio printing can save many lives

SINcE I hAVE ALwAYS BEEN INTErESTEd in science and technology, I subscribed to many research magazines, including Popular Science and Scientific American. However, until 10th grade, I never had the opportunity to contribute to medical research—something that I had always wanted to do. Then, one day I read an article titled “Print Me a Pancreas, Please” in Popular Science, which described novel tissue engineering research involving modification of off-the-shelf inkjet printers to print out living cells in a “bioink” solution. Having read much about tissue engineering, I realized this “organ printing” approach could potentially address problems of traditional tissue engineering methods, such as the need to precisely place specific cell types in 3D scaffolds. I was so excited that I came up with a few ideas of my own about advancing the

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

In August 2010, Hannah Warren, a Korean baby girl was born with no windpipe. When Hannah was delivered, she was blue, and her doctors had to force a tube down her throat so she could breathe properly. Following some tests, the doctors found that Hannah had been born without a trachea. Hannah’s parents were told most children in her condition didn’t survive, and that she had a very low chance as well. However, she continued to grow bigger and stronger, and her family kept searching the internet for possible treatments. The family found information concerning stem cells and their use in regenerative medicine, and learned about a physician who was creating windpipes out of stem cells and transplanting them into patients. The family got into

Elizabeth Gough-Gordon, in the article 3D Printing and Medicine: Not Just Science Fiction Anymore, explains that 3D printing in the medical field is “not new technology”, but recent innovations are not only revolutionizing surgical procedures and prosthetics, but also the future of prescription distribution. In her article, Gough-Gordon inputs statistics, dates, speeches, and individual stories of patients who received 3D printed prosthetics in her article in order to assert the changes 3D printing has undergone since the 1980’s and how it is helping people today in 2015. For example, Gough-Gordon explains how 3D printing was first invented in the early 1980’s, despite the futuristic appeal the it has now, and how it has become a less expensive

We think that 3d printing lungs is realistic because we can 3d print other organs. If you can process of 3d printing lungs so that everyone has the chance to get a new lung will really help defeat lung

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 first industry that is utilizing 3D printing is surgery. This technology allows doctors to print exact replicas of organs in order to practice surgery procedures. An advancement like this allows doctors to perform more difficult surgeries, and be comfortable in their understanding of the mechanics of the surgery they are performing. These prototypes also help them see critical elements that may have been missed using 2 dimensional imaging. One such case was a 9-month old who was found to have holes in her heart, more than they had anticipated before the 3-D replica was built.

This inspires groups to donate 3D-printed prosthetic limbs to amputees who have limited resources. Cost is a major factor for many families who have children that require new prosthetics as the child grows.

With the very limited supply of organs, 3D printing creates functioning organs without a donation from a living organism. The definition of 3D printing from Charles W. Hull, the inventor of 3D systems, states that “...thin layers of a material that can be cured with ultraviolet light were sequentially printed in layers to form a solid 3D structure” (Murphy & Atala 773). The sheer narrow sheets play a vital role in bioprinting. They allow the printers to develop functional, layering individual cells, proteins, and an extracellular matrix. The three basic types of 3D printing include biomimicry, independent self- assembly, and miniature tissue blocks. The creation of the 3D structure creates all the difference between these types of printing. Three dimensional structure approaches include, creating exact duplicates of the cells and tissues with extensive knowledge, using a developing embryo as a template or using microscopic tissues to assemble into a larger developed tissue (Kalaskar). In other words, all these paths to bioprinting end up with a 3D structure but require different knowledge and materials. They all contain their own sets of challenges.

Government policy - Although 3D printing opens up new practical challenges, protection of 3D designs and objects under intellectual property, the policy questions about 3D printers are not

In 1984, 3D printing, also known as additive manufacturing was introduced to the world. A three-dimensional (3D) printer works just as an inkjet printer, but instead of ink, certains type of material would be deposited layer by layer until the anticipated object is constructed. A decade later, this semi-new technology was used to make parts that could be printed overnight with minuscule imperfections. Then, in the late nineties, 3D printing advanced to printing organs with the patient’s own cells so there would be less danger of the body rejecting the new part (Cite). This led to a medical breakthrough, an event that would ensure extended life to its owner: a functional 3D printed kidney. The 3D printed kidney was efficient in filtering blood and producing urine, thus encouraging engineers to strive for more discoveries. By today’s day and age engineers could not only mechanical pieces, such as aircrafts, cars and such, but medically organic part as organs, blood vessels and finally, prosthetics.