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3d Bioprinting Research Paper

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3D Bioprinting

Benjamin S. Harrison once said, "The impossible can be possible." Bioprinting was once just an idea in Charles W. Hull's mind, but it has now become a reality. Everybody in the late 1900s was looking for alternate methods for transplants that can reduce risks of a patient dying. With 3d bioprinting the possibilities are limitless. Bioprinting will revolutionize the world of medicine by reducing the number of patients on a waiting list, raising the life expectancy of patients, and lowering the cost of transplants.

Firstly, 3D bioprinting will allow doctors to use a patient's own cells to print 3d organs, which will drastically lower the chances of the transplant failing. "At least one child in 12,500 is born with microtia, …show more content…
"In 2012, doctors printed a custom device to go in the throat of a three-month-old baby named Kaiba Gionfriddo. The device kept his airway from collapsing and saved his life" (Hulick 1). 3d bioprinting truly does save lives and raises the life expectancy of patients. This 3 month old baby with the help of 3d bioprinting is alive and with a much longer life expectancy. "If doctors could just pop in a new heart or lung whenever you needed one, you could possibly live to meet your great-great-great grandkids!" (Hulick 1). Doctors will be able to print organs for patients which will result in a longer life expectancy for that patient, and that patient will then be able to see his/her grandkids for another day. "the heart replicas are designed to match every tiny detail of a baby's heart, so they can help surgeons plan where to cut tissue, reroute piping an patch holes in children with congenital heart defects, researchers said" (Ghose 2). Doctors are now able to carefully and successfully repair a baby's heart with the help of 3D bioprinting, and "...inspired a repair strategy that dramatically extended the baby's life span" (Ghose 2). "...a baby had problems with the major arteries emerging from the heart's right ventricle as well as several holes in the heart. Normally with the procedure used to fix these defects, doctors destroy so much hear tissue and reroute blood flow so dramatically that they essentially reduce the heart to two functional chambers...by looking at the anatomy in 3D, the team was able to find a better work-around and spare all four of the heart's chambers, which increased the baby's life expectancy from 20 to 30 years to near-normal, Bramlet said" (Ghose 4). With the help of a 3d printed heart replica doctors were able to study the anatomy of the heart in

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