Skip to main content

Featured Articlce

The Future of 3D Printing and Healthcare

When it comes to 3D printing, the sky is the limit. As 3D printing technology continues to advance, applications can be as far reaching as  airplane  and  automobile parts  to medical devices and even anatomically correct, biocompatible models. Although 3D printing technology is developing at a rapid pace, the technology itself is not new. It emerged in  the 1980s  as a means of creating rapid prototypes. In recent years the applications for 3D printed models have evolved with the available hardware, software, and printable materials. Evolving technology, paired with the creative and innovative minds of scientists, engineers, and physicians, has been the launching pad for developments within 3D printing technology specific to healthcare. One way 3D printing technology is poised to create better patient outcomes is in creating an anatomically and  patient-specific models  to aid in surgery and medical procedures. With the capability to 3D print patient-specific models, more acc

The Future of 3D Printing and Healthcare

When it comes to 3D printing, the sky is the limit. As 3D printing technology continues to advance, applications can be as far reaching as airplane and automobile parts to medical devices and even anatomically correct, biocompatible models.
Although 3D printing technology is developing at a rapid pace, the technology itself is not new. It emerged in the 1980s as a means of creating rapid prototypes. In recent years the applications for 3D printed models have evolved with the available hardware, software, and printable materials. Evolving technology, paired with the creative and innovative minds of scientists, engineers, and physicians, has been the launching pad for developments within 3D printing technology specific to healthcare.
One way 3D printing technology is poised to create better patient outcomes is in creating an anatomically and patient-specific models to aid in surgery and medical procedures. With the capability to 3D print patient-specific models, more accurate preparation and planning can take place, leading towards a more effective procedure. Combining the advancements in 3D imaging with current 3D printing, a cardiac surgeon can conceivably make a model of a particular patient’s specific heart defect and evaluate the ins and outs of every possible surgical outcome before ever stepping into the operating room.
Although exciting and promising technology, the mass production or common commercial use of 3D printing in biomedicine is not yet practical. In fact, it is quite expensive. Though there have been studies displaying the positive effects of allowing hospitals to have access to 3D printing hardware and materials, insurance companies do not reimburse hospitals for what is spent. When and if that day comes, it is expected that many more advancements will quickly be made due to hospitals’ ability to create on-site 3D printing laboratories.
What does this mean for healthcare? What new developments can we expect as we continue moving into the future?
We have already seen how a group at Virginia Tech was able to apply hard work and ingenuity into creating a prosthetic hand for a girl in Salem, Virginia. But what if we are able to go beyond prosthetics? What if we could move beyond using metals or plastics as 3D printing materials? What if we could somehow develop living tissue?
According to an article by Kevin Hand of Popular Science, that is just the type of thing happening in biomedical labs all around the world. Bioengineers are beginning to print prototype body parts, such as heart valves, artificial bone, and skin grafts, to name only a few. In fact, James Yoo, a researcher at Wake Forest Institute for Regenerative Medicine, has been working to develop a portable printer that is capable of printing skin grafts directly onto burn victims.
3D printing applications in healthcare do not stop with the human body. They continue with the tools that doctors require for examining and operating on the human body. Surgical tools, like forceps, scalpel handles, and clamps, are able to come out of the printer already sterile–and the materials used are a tenth the cost of stainless steel equivalents.
As this technology continues to advance, we are optimistic that it will soon be readily available for the average consumer and patient. We know for this to happen efficacy, safety, and benefits will need to be recognized by insurance companies, regulatory bodies, and physicians alike. Our curious and science-loving team will continue to keep an eye on the role of this technology in creating better patient outcomes and ultimately creating a happier, healthier, and safer world.

Comments

Popular posts from this blog

Phthalates and BPA Regulations: Are We There Yet?

It’s better to be safe than sorry.  But the Environmental Protection Agency  recently withdrew two proposed rules regulating chemicals  that it had developed under authority of the Toxic Substances Control Act (TSCA) and submitted to the White House’s Office of Information in 2010 and 2011.  Dr. Richard Deninson  of the Environmental Defense Fund explains it further: Faced presumably with the reality that OIRA [Office of Information and Regulatory Affairs] was never going to let EPA even propose the rules for public comment, EPA decided to withdraw them.  The two proposed rules that were just withdrawn would have: Designated as ‘chemicals of concern’ three classes of chemicals for which evidence is more than sufficient to warrant such a designation:  bisphenol A (BPA), a category of phthalates, and a category of polybrominated diphenyl ethers (PBDEs).  By listing a chemical as ‘of concern,’ EPA may obtain, and provide to the public, more information about the chemical than it

The Science Behind 4 Of The Greatest Polymers Of All Time

PMMA Applications: Lucite, dentures, aquarium windows Developed in: 1877 Polymethylmethacrylate is a very versatile polymer. If you ever see a clear plastic block, it's probably PMMA. It was first commercialized in the 1930s in Germany, and is now found anywhere one needs clear, strong material. This includes bulletproof "glass" at your favorite corner liquor store and the huge shark tanks at the Monterey Bay Aquarium. But my favorite use of PMMA is in so-called "frozen lightning" or Lichtenberg figure sculpture. Basically, put a chunk of PMMA into an electron accelerator, fire a bunch of electrons into the plastic until it's got about two million volts of charge, then touch the side of the plastic with a bit of wire and watch as bolts of lightning carve tracks inside the clear plastic. Superabsorbers Applications: Diapers Developed in: 1960s Back in the day, diapers were made from cloth. Frequently, those cloth diapers were filled with wads of n

Virginia Tech Students Create Foldable Bike Helmets

Helmets: Something you may have hated with a passion as a child, but your parents made you wear. As adults, one could argue helmet use is pretty divided. If you head down your local bike path or along a neighborhood street, you’ll see a good number of riders not wearing their helmets. Two Virginia Tech students think that’s a problem. Co-founders David Hall and Jordan Klein started  Park & Diamond  and set out to create a safe, compact, and stylish helmet to hopefully convince people to wear them every time they bike. The interest in refining technology to prevent bike related head injuries is  incredibly personal  for the team of innovators, especially for Hall. In 2015 Hall’s younger sister was involved in a bike accident in Philadelphia and remained in a coma for four months. The bicycle crash occurred at the corner of Park Avenue and Diamond Street in Philadelphia—which is reflected in the name of their company. How Helmets Work Just like the  crumple zone  in y