A
Patient-Specific Approach to Treating Idiopathic Pulmonary Fibrosis
Lung diseases are the
third leading cause of death in the United States. Idiopathic pulmonary
fibrosis (IPF) is one type of lung disease. This disease causes scarring on the
lungs, making it difficult to breathe. There is no cure for IPF, and the shortage
in human disease models has delayed advancements in available therapies. The
study by Wilkinson et al introduces a method to create tissue-engineered organoids that can lead
to a deeper understanding of the biology of the disease. The authors improve on
previous methods of creating lung tissue by presenting a technique that
generates patient-specific lung organoids, which can undergo high throughput
screening. Lung organoids were formed using stem cells from adult lungs and
alginate beads. The adhesion of the cells to the beads results in lung
organoids that imitate actual lungs. The authors tested their engineered lung
to see if it functioned like a real one, and they successfully found scarring
on the lung organoid that resembled IPF. The researchers also found that organoids
could be produced from other cell types.
Given the lack of
available models, this research presents a significant breakthrough. The most
valuable aspect of this method is that it is patient-specific. The disease affects
each person differently, so one treatment can’t be used for everyone. Using the
lung organoids, doctors can see how a patient’s body will react to different
drugs and provide personalized treatment. Since the organoids can be generated
so quickly, multiple drugs can be screened at once. This will
provide faster determinations of the medication best suited for each patient.
The quicker they can get the proper medication, the better.
This technique can be
helpful for not only IPF, but other lung diseases as well. This type of research
holds even further implications for the future, specifically for transplants.
Patients could have a transplant of an organ that was created using their own
cells. The patient would not have to be put on a list to wait for a donor organ
to become available. It would also be safer because receiving an organ
generated from the patient’s cells severely diminishes the chance his or her
body will reject it.
Here is a link if you would like to read more about idiopathic pulmonary fibrosis:
http://www.nhlbi.nih.gov/health/health-topics/topics/idiopathic-pulmonary-fibrosis
http://stemcellstm.alphamedpress.org/content/early/2016/09/14/sctm.2016-0192.short?rss=1
If the creation of patient specific organoids can be applied to other organs as well as lung this could be one of the most revolutionary advancements in medicine. With this organs could be made specifically for patients that need transplants, and any disease or reaction to medicine could be seen. However, this procedure does sound like it is very pricey and possibly time consuming so more advances and studies need to be done, but overall this could be an amazing tool for future doctors.
ReplyDeleteI wonder how large the technological gap is from using this to create personal treatments and creating organs for transplants. A reliable source of compatible organs for transplants would be a great advancement for medicine.
ReplyDeleteI also think patient specific treatments are on the rise in multiple types of diseases. In cancer treatments specifically treatments can have a wide range of options.
In my second blog, I wrote about something sort of similar where the organs are actually grown in pigs using stem cells from the sick individual. This seems like a new but really cool field of biology that just needs more research.
ReplyDeleteSomething like this could also make a significant difference in bodies donated to science. I suspect that unless otherwise arranged, if a person is an organ donor then that is the first priority. However, if there isn't a need for organ donors anymore, it would be easier to obtain bodies for more scientific research.
Heather: That's exactly what I was thinking about.
ReplyDeleteAbby: Nice find. This could also maybe be a way around the use of animal models in drug testing.