Artificial lymph node activates immune cells and boosts cancer treatment in mice
Johns Hopkins Medicine - 06-Jun-2024This approach is a simpler alternative to existing cell therapies for cancer
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Artificial (or bionic) organs represent a pioneering field in medical science, aiming to restore or replicate the functions of human organs through mechanical or bioengineered solutions. These innovations range from well-established devices, such as pacemakers and cochlear implants, to more complex organs including artificial hearts, kidneys, and pancreases.
Currently, several artificial organs have been successfully implemented, significantly improving patients' quality of life. For instance, the artificial heart has evolved into a viable temporary solution for patients awaiting transplants, and in some cases, it serves as a long-term solution.
The future of artificial organs is poised for groundbreaking advancements, driven by rapid progress in stem cell research, 3D printing, nanotechnology, and robotics. These technologies promise to deliver more sophisticated, durable, and biocompatible organs. The goal is not only to replace organ function but also to enhance it, potentially leading to organs that can resist diseases better than their natural counterparts.
This approach is a simpler alternative to existing cell therapies for cancer
This eliminates the need for human donors and reduces waiting times
Technology automates insulin delivery, offering better blood sugar control
Aims to reach an annual production capacity of 500 artificial hearts
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The Body Builders explores the current revolution in human augmentation written by Adam Piore
We're now able to barcode individual cells, and also create 1:100,000 scale human bodies