The World in 2030

The World in 2030 The World in 2030

speakers.co.uk
from speakers.co.uk More from this publisher
01.09.2015 Views

The World in 2030 297 By 2030, humans will be receiving a significant part of their healthcare via telemedicine and the networks (with adequate security over private data) will provide storage for your personal medical data and records which you, or a medical professional who has your approval, can access at any time from anywhere in the world. Plastics and Healthcare Plastics of one sort or another already play a major role in healthcare bringing their inherent advantages of low cost, light weight, durability and sterility. But some new applications of plastics in healthcare are non-obvious. As a BBC story revealed in May 2007: Scientists have developed an artificial plastic blood which could act as a substitute in emergencies. Researchers at Sheffield University said their creation could be a huge advantage in war zones. They say that the artificial blood is light to carry, does not need to be kept cool and can be kept for longer. The new blood is made up of plastic molecules that have an iron atom at their core, like haemoglobin, that can carry oxygen through the body. 520 And, as we begin to monitor our own physiology on a semipermanent and permanent basis, plastics will be used for

298 The World in 2030 the construction of ever smaller and ever lighter monitoring devices. Even today patients with heart conditions are able to wear lightweight ECG equipment for long periods to provide ‘ambulatory data’ (data collected as the patient goes about daily life). 521 Eventually smart plastics will start to interface directly with our bodies. In 2005 New Scientist reported: Scientists are building a new bionic ear coated in a smart plastic that boosts the growth of nerve cells in the inner ear when it’s zapped with electricity. The technology, which also has potential for healing spinal cord injuries, is being developed at the Australian Centre for Medical Bionics and Hearing Science, part of Melbourne’s Bionic Ear Institute. 522 Collaborator, Professor Gordon Wallace of the Intelligent Polymer Research Institute at the University of Wollongong, says the polymer polypyrrole is unusual because unlike most plastics, it can conduct electricity. 523 Plastics also have a significant role to play in creating casings for the delivery of powerful drugs to sites deep within patients’ bodies. As this announcement by the University of Wisconsin-Madison, USA spelled out: Working in the emerging field of ‘nanomedicine,’ University of Wisconsin-Madison pharmacy professor Glen Kwon 524 aims to improve the delivery of

298 <strong>The</strong> <strong>World</strong> <strong>in</strong> <strong>2030</strong><br />

the construction of ever smaller and ever lighter monitor<strong>in</strong>g<br />

devices. Even today patients with heart conditions are able<br />

to wear lightweight ECG equipment for long periods to<br />

provide ‘ambulatory data’ (data collected as the patient goes<br />

about daily life). 521<br />

Eventually smart plastics will start to <strong>in</strong>terface directly<br />

with our bodies. In 2005 New Scientist reported:<br />

Scientists are build<strong>in</strong>g a new bionic ear coated <strong>in</strong> a<br />

smart plastic that boosts the growth of nerve cells <strong>in</strong><br />

the <strong>in</strong>ner ear when it’s zapped with electricity.<br />

<strong>The</strong> technology, which also has potential for heal<strong>in</strong>g<br />

sp<strong>in</strong>al cord <strong>in</strong>juries, is be<strong>in</strong>g developed at the Australian<br />

Centre for Medical Bionics and Hear<strong>in</strong>g Science,<br />

part of Melbourne’s Bionic Ear Institute. 522<br />

Collaborator, Professor Gordon Wallace of the Intelligent<br />

Polymer Research Institute at the University<br />

of Wollongong, says the polymer polypyrrole is<br />

unusual because unlike most plastics, it can conduct<br />

electricity. 523<br />

Plastics also have a significant role to play <strong>in</strong> creat<strong>in</strong>g cas<strong>in</strong>gs<br />

for the delivery of powerful drugs to sites deep with<strong>in</strong><br />

patients’ bodies. As this announcement by the University of<br />

Wiscons<strong>in</strong>-Madison, USA spelled out:<br />

Work<strong>in</strong>g <strong>in</strong> the emerg<strong>in</strong>g field of ‘nanomedic<strong>in</strong>e,’<br />

University of Wiscons<strong>in</strong>-Madison pharmacy professor<br />

Glen Kwon 524 aims to improve the delivery of

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!