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| Ivan Spasojevic. |
| To truly understand living systems they must be viewed as a whole. In order to achieve this and to come to some law to which living systems obey, data obtained on cells, tissues and organs should be integrated. Because there are no such laws yet, there is usually a long path for physiological findings obtained by reductionist approaches to be translated into medical practice. The concept and accompanying equations of homeostasis presented here are aimed to develop biological laws and to bridge this gap between physiology and medicine. The concept of homeostasis takes into account energy input and output, enlisting all relevant contributors. In homeostasis, input should equal the output. What I suggest here is that if the system is out of homeostasis, the... |
| Tipo: Manuscript |
Palavras-chave: Cancer; Molecular Cell Biology; Neuroscience; Pharmacology; Bioinformatics. |
| Ano: 2011 |
URL: http://precedings.nature.com/documents/6741/version/1 |
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| Ivan Spasojevic. |
| To truly understand living systems they must be viewed as a whole. In order to achieve this and to come to some law to which living systems obey, data obtained on cells, tissues and organs should be integrated. Because there are no such laws yet, there is usually a long path for physiological findings obtained by reductionist approaches to be translated into medical practice. The concept and accompanying equations of homeostasis presented here are aimed to develop biological laws and to bridge this gap between physiology and medicine. The concept of homeostasis takes into account energy input and output, enlisting all relevant contributors. In homeostasis, changes in the input should equal changes in the output within any specific period of time. What I... |
| Tipo: Manuscript |
Palavras-chave: Cancer; Molecular Cell Biology; Neuroscience; Pharmacology; Bioinformatics. |
| Ano: 2012 |
URL: http://precedings.nature.com/documents/6741/version/2 |
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