lsuhealth shreveportAt my fourth grade picnic, I ran up the steps of a gazebo and fell on my knee onto the brick steps. The cut was so deep it severed nerves, so I didn’t feel it; I didn’t even know I’d been hurt until one of the chaperones grabbed my arm. My mom and I got to urgent care pretty quickly, where a doctor stitched me up. I didn’t watch, as I was petrified of needles as a child, and kept a magazine firmly over my face throughout the procedure. I was extra-afraid, too, because I remembered a few years ago when my older sister had stitches in her knee and told me it was way worse having them removed than getting them in the first place. Because my wound was so deep, though, I was given special stitches that ultimately dissolved into my bloodstream and I didn’t need them taken out. That was a huge relief!

la techDoctors have long recognized the additional trauma of having to remove anything put into the human body during medical procedures, as removing stitches, implants, or other temporary structures can re-injure an area, add healing time, or mentally discomfort the patient. Fortunately, dissolvable and other bio-friendly and -adaptable technologies have come a long way in treating medical conditions which can now simply be absorbed into the body in a non-traumatizing manner upon completion of their treatment.

jeffrey weisman

Dr. Jeffrey Weisman

Dr. Jeffrey Weisman, the first person to pursue a new joint PhD/MD certification offering, graduating with a PhD in Biomedical Engineering in November 2014 from Louisiana Tech and expected to graduate with his MD from LSU Health Sciences Center-Shreveport in May 2016, has been making incredible strives in bringing together the latest in technology to the health arena. Last summer, we covered his work in using commercial-grade desktop 3D printers in making drug emitting implants for cancer treatment and infection.

Dr. Weisman, working with an impressive team of researchers, has been at the helm of developing Bioactive 3D Printing, which is set to change the landscape of drug delivery for patients around the world.

“The way that Osteomyelitis or bone infection would currently be treated, you’d go ahead and you’d mix up a bone cement, which is kind of like mixing up Play-Doh, and you mix it up and put antibiotics in it… you end up where you can mold it into these beads or pellets that can be implanted into the bone site of the infection,” Dr. Weisman told KTBS. “Then what will end up happening is it will clear up the infection, and 6 weeks later they’ll have to go back in and remove these, whereas what we’re able to do as a new novel treatment is by being able to 3D print both a bioabsorbable and antibiotic alluding bead is we can go ahead and implant that, and 6 weeks later we don’t have to go any remove it from the body. So that reduces the morbidity of having another surgical procedure once the bone infection is cleared up.”

Uday Jammalamadaka Jeff Weisman and Karthik Tappa

Dr. Weisman working on developing 3D printed drug delivery systems in the lab with Uday Jammalamadaka and Karthik Tappa

By providing drug delivery in such a manner, applications such as the treatment of bone cancer can be streamlined to avoid more surgery while upping the treatment potential by a focus on localized treatment.

Localized treatment is critical in treating such sensitive diseases as bone cancer.

“When a surgeon would go in and remove a tumor, such as an Osteosarcoma, we can go in and we can do a scan of that wound or bone defect that’s been removed and we can actually 3D print a filler that can go in there that’s basically alluding a chemotherapeutic,” Dr. Weisman says of the potential of their 3D printed drug delivery in bone cancer treatment. Regarding the use of localized treatment, he says, “One of the biggest advantages to that is with systemic drug delivery you’ve got to really worry about a lot of things such as nephrotoxicity, or basically a poor reaction to the drug, whereas going in a doing something more localized, you can do a much lower dosage of the drug you’re trying to treat with…so you can reduce the risk of an adverse reaction.”

makerbotIn recognition of the huge potential of bioactive 3D printing, the research group has recently been awarded a $40,000 grant/investment to open the first Shreveport, LA area medical 3D printing lab. Currently working in a lab provided by the Biomedical Research Foundation, the new 3D printing lab will pave the way to more targeted work in the medical field–and the team is hoping to gain additional funding, from a federal grant, to expand the equipment at their disposal.

“The next question and the really difficult one is,” said Dr. Weisman, “is this something that can help a patient and how do we go ahead and commercialize this?”

Currently working toward that goal of expanding the research and ultimately offering the drug delivery systems to a wider patient base, Dr. Weisman and team will surely see the benefits of having a dedicated research lab to fully develop their bioactive 3D printing concepts. Let us know what you think of these developments in the Bioactive 3D Printing Research forum thread over at 3DPB.com.

Printing out drug implants on a MakerBot Replicator 3D printer

Printing out drug implants on a MakerBot Replicator 3D printer

 

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