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| The Mechanisms in Semipermeable Membranes and Neurons | |||||||||||||||||
| Abstract | |||||||||||||||||
| A membrane can be permeable to a particular molecule if the pores on the membrane are sufficiently larger than the molecule in the corresponding dimension. It also depends on the electromagnetic polarity of the molecule as well as the membrane. For example an ion or a polarized molecule may not pass through a polarized membrane due to long range electromagnetic interactions. Some large molecules collected at a membrane can act as secondary membranes inhibiting some other molecule from passing to the membrane in some cases it is also possible that the secondary membranes increase the permeability by neutralising the polarity of the primary membrane. A similar situation is possible in neurons also. An example application of these mechanisms can be found in diabetes which can occur due to the damage of a membrane. Consequently the sugar molecules, probably acting as secondary membrane, can lose their action and pass through the primary membrane and can further damage other parts. A possible remedy for this can be the repair of the damaged membrane. An evidence for this is that 90-95% of Diabetes cases are not Insulin dependent [1]. | |||||||||||||||||
| Reference | |||||||||||||||||
| [1] Textbook of Human Nutrition _ Matab S. Bhamji, et. al., Oxford I.B.H. Publishing Co. Pvt. Ltd, New Delhi, 1996, P-335. | |||||||||||||||||
| Discoveries and Inventions | |||||||||||||||||
| 9.1 | |||||||||||||||||