Difference between revisions of "Talk:Open Source Medicine"
From AdCiv
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==The biggest killers== | ==The biggest killers== | ||
Cancer, cardiovascular disease and stroke are already dealt with in the article. It would be nice to get some mention of these: | Cancer, cardiovascular disease and stroke are already dealt with in the article. It would be nice to get some mention of these: | ||
− | *'''AIDS''' - Proteomics??? The proteome of HIV has been mapped, but I think no one yet knows whether it could be controlled with proteomic interventions. | + | *'''AIDS''' - |
+ | **Vaccines: Maybe create a new section on vaccine design and production. HIV is trickier than any other virus to find a cure or vaccine against. It mutates more than any other virus and though there are antibodies against it, they are effective against only a few strains. Vaccines have been proven that protect against 40% of strains; this is not clinically useful, but proves that a HIV vaccine is possible. 'Broadly neutralizing antibodies' that are effective against 91% of strains have been found [http://singularityhub.com/2010/07/22/antibody-neutralizes-91-of-hiv-strains-strong-step-towards-a-vaccine/], and a cocktail of antibodies could be 100% effective. We have identified a site on the virus that doesn't mutate - the viral spike glycoproteins - the antibodies that latch onto that site, and the genes that generate these antibodies. The trick now is to develop something like a bacterium that resembles the viral spike glycoproteins yet elicits a strong immune system response. This will train the immune system to attack the spike, hence to attack all strains of HIV. Attaching it to a bacterium would mean it could be cultured quickly and cheaply. (Incidentally, the research methodology pioneered in this quest for an AIDS vaccine might also be used to develop a universal flu vaccine [http://singularityhub.com/2009/03/05/new-antibody-breakthrough-paves-the-way-for-near-universal-flu-vaccine/]. This might be relevant to the [[Pandemic preparedness]] page.) | ||
+ | **NK cells | ||
+ | **Proteomics??? The proteome of HIV has been mapped, but I think no one yet knows whether it could be controlled with proteomic interventions. --[[User:Balatro|Balatro]] 10:31, 18 June 2011 (CEST) | ||
+ | **Education is probably the real answer, at least until a cure or vaccine is found. | ||
+ | **Nanobots could, of course, be programmed to search-and-destroy, but they are rather far off in the future | ||
*'''Malaria''' - One of the most interesting ways to control malaria, and certainly the cheapest, is with permaculture. A bat-house will control mosquitos<sup>[http://www.batcon.org/index.php/media-and-info/bats-archives.html?task=viewArticle&magArticleID=397]</sup>, planting plants rich in citronella oil around human habitations will repel mosquitos and growing the ''Polyporus umbellatus'' mushroom is effective against the parasite itself. | *'''Malaria''' - One of the most interesting ways to control malaria, and certainly the cheapest, is with permaculture. A bat-house will control mosquitos<sup>[http://www.batcon.org/index.php/media-and-info/bats-archives.html?task=viewArticle&magArticleID=397]</sup>, planting plants rich in citronella oil around human habitations will repel mosquitos and growing the ''Polyporus umbellatus'' mushroom is effective against the parasite itself. | ||
Revision as of 10:49, 18 June 2011
Contents
The biggest killers
Cancer, cardiovascular disease and stroke are already dealt with in the article. It would be nice to get some mention of these:
- AIDS -
- Vaccines: Maybe create a new section on vaccine design and production. HIV is trickier than any other virus to find a cure or vaccine against. It mutates more than any other virus and though there are antibodies against it, they are effective against only a few strains. Vaccines have been proven that protect against 40% of strains; this is not clinically useful, but proves that a HIV vaccine is possible. 'Broadly neutralizing antibodies' that are effective against 91% of strains have been found [1], and a cocktail of antibodies could be 100% effective. We have identified a site on the virus that doesn't mutate - the viral spike glycoproteins - the antibodies that latch onto that site, and the genes that generate these antibodies. The trick now is to develop something like a bacterium that resembles the viral spike glycoproteins yet elicits a strong immune system response. This will train the immune system to attack the spike, hence to attack all strains of HIV. Attaching it to a bacterium would mean it could be cultured quickly and cheaply. (Incidentally, the research methodology pioneered in this quest for an AIDS vaccine might also be used to develop a universal flu vaccine [2]. This might be relevant to the Pandemic preparedness page.)
- NK cells
- Proteomics??? The proteome of HIV has been mapped, but I think no one yet knows whether it could be controlled with proteomic interventions. --Balatro 10:31, 18 June 2011 (CEST)
- Education is probably the real answer, at least until a cure or vaccine is found.
- Nanobots could, of course, be programmed to search-and-destroy, but they are rather far off in the future
- Malaria - One of the most interesting ways to control malaria, and certainly the cheapest, is with permaculture. A bat-house will control mosquitos[3], planting plants rich in citronella oil around human habitations will repel mosquitos and growing the Polyporus umbellatus mushroom is effective against the parasite itself.
Interesting links
- http://www.nytimes.com/2010/08/13/health/research/13alzheimer.html?_r=1
- http://www.openclinical.org/
Proteomics
- http://www.ted.com/talks/david_agus_a_new_strategy_in_the_war_on_cancer.html
- http://www.ted.com/talks/danny_hillis_two_frontiers_of_cancer_treatment.html
Regenerative medicine
Imaging
Vaccines
Open Medical AI
- Communicates with patient in natural language
- Turns every patient into a data point - bridges gap between clinic and research
- Accesses medical journals (with Natural Language Processing)
- Interprets scans (with machine vision)
- Analyzes test results, like proteomics, genomics, blood tests
- Simulations of biochemistry, proteomics
- Analyzes small, wireless sensors
- Makes decisions (with Bayesian logic, expert systems, machine learning)
- Integrated with an Electronic Medical Record system
- All this done by cloud computing
Unfortunately, most of the development in this field is being done by private companies; there is not yet a dynamic open-source project. There was EgaDSS, but it seems to have stalled out. There is an X-Prize with a $10 million purse to stimulate medical A.I, but this will lead away from open-source.