Can Organelles be Added to Cells Through Genetic Engineering or Transplantation?

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The discussion centers on the potential for genetic engineering to enhance existing cells by adding organelles like mitochondria, vacuoles, and ribosomes. It explores the idea of creating a "parasitic" organelle that could integrate into a host cell, utilizing the cell's resources and potentially producing desired biological materials by injecting specific DNA. While some participants express skepticism about the practicality and purpose of developing such organelles, they acknowledge existing methods for mitochondrial transfer in reproductive technologies, where mitochondria from donor cells are introduced into egg cells to address deficiencies. Additionally, recent research highlights successful mitochondrial transfers between mouse species, paving the way for better models to study mitochondrial diseases. The conversation also touches on the implications of hybridizing animal and plant cells, questioning whether their cell walls would fuse. Overall, the thread discusses innovative genetic engineering concepts and their applications in cellular biology.
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Is it at all possible through genetic engineering, or through physically transplanting one, to add more mitochondria, vaculous, ribosomes etc. to existing cells, assuming they were simmilar enough to the current ones to not be viewed as invaders?
 
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What if you geneticly engineered a "parasitic" organelle? You could create an organelle with its own DNA that made its home upon an existing cell, taking its needs for survival from that cell. It could be essentially another nucleus, but empty of DNA- strands of DNA could be encased in "hormones" of a sort specific to this organelle. We could then inject the correct DNA hormones and then inject one that starts the process, and the parasitic organelle would begin production of things based on that DNA. We could even have it reroute things going to the regular nucleus...

In which case we could program our parasitic organelle to produce mitochondria or whatever we want, couldn't we?
 
Originally posted by wasteofo2
Is it at all possible through genetic engineering, or through physically transplanting one, to add more mitochondria, vaculous, ribosomes etc. to existing cells, assuming they were simmilar enough to the current ones to not be viewed as invaders?
Oh, it happens, new people are made that way already. Some woman don't have enough mitochondria in their egg cells, so either the nucleus of that woman is transplanted to an egg cell of another female, or cytoplasm of another female is added to the woman's egg.
 
Originally posted by Sikz
What if you geneticly engineered a "parasitic" organelle? You could create an organelle with its own DNA that made its home upon an existing cell, taking its needs for survival from that cell. It could be essentially another nucleus, but empty of DNA- strands of DNA could be encased in "hormones" of a sort specific to this organelle. We could then inject the correct DNA hormones and then inject one that starts the process, and the parasitic organelle would begin production of things based on that DNA. We could even have it reroute things going to the regular nucleus...

In which case we could program our parasitic organelle to produce mitochondria or whatever we want, couldn't we?
Why would you want to make parasitic organelles? It takes a lot of work to accomplish and doesn't serve a purpose. To produce mitochondria, you could just insert the correct genes in the already working genome..
 
This migth interresting

Despite the importance of the mitochondria in disease, suitable mouse models to study mitochondrial dysfunction have proved difficult to generate because classical genetic techniques cannot be applied to the thousands of individual mitochondria in a single cell. Now, a team of researchers reports the introduction of these organelles from one mouse species into another, generating a mitochondrial mutant model that could be used to elucidate mitochondria-related disease mechanisms.

In the January 26 PNAS, Matthew McKenzie and colleagues at the University of Melbourne demonstrate the successful transfer of species-specific mitochondria into mouse embryos using mitochondrial DNA–depleted embryonic stem cells and cytoplast fusions that results in homoplasmy for the introduced mitochondrial background (PNAS, DOI:10.1073/pnas.0303184101, January 26, 2004).

http://www.biomedcentral.com/news/20040130/01
 
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yay Australia
 
what would happen if you took out the nuclei of many animal cells and injected into them the nuclei of identical plant cells, and put these cells together. i know that they will all grow cell walls, but will their walls fuse together in the test like they do in regular plants?
 
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