heterotrophic

Would a heterotrophic adult plant have all the same micro-nutrients that a photoautotrophic adult plant has?

They were accompanied by the ancestors of several groups of heterotrophic bacteria, e.g.

So they had to change their lifestyle from the ancestral lifestyle of the eukaryotes to a lifestyle similar to that of the heterotrophic bacteria, i.e.

And just in terms of biogeochemical cycling the result is pretty similar whether the decomposition is being done by heterotrophic bacteria and archaea, or by fungi -- so to first order it wouldn't change that.

Recently, I built a steady state feasibility model for growing, harvesting and extracting lipids from algae using heterotrophic and autotrophic systems.

More exotically, photosynthetic and alternative energy generation from various heterotrophic species.

Animals are unique among eukaryotes, because all other multicellular eukaryotes have abandoned the primitive lifestyle of eukaryotes, by taking the lifestyles of either heterotrophic or phototrophic bacteria.

Abiotic and biotic degradation of plastics releases carbon-based substrates that are available for heterotrophic growth, but little is known about how these novel organic compounds influence microbial metabolism.

As a dead tree decomposes the heterotrophic organisms eating it release a large amount of the stored carbon back into the atmosphere as CO2 as we heterotrophs are want to do.

> The end of the period also saw the origin of heterotrophic plankton, which would feed on unicellular algae and prokaryotes, ending the bacterial dominance of the oceans.

Fungi are multicellular eukaryotes that have abandoned the primitive lifestyle of the eukaryotes, and which have reverted to a lifestyle similar to that of heterotrophic bacteria, just with a different topology of the interface between cells and environment (i.e.

The correct term is heterotrophic but even that is a fuzzy distinction because many (if not most) plants require symbiotic bacterial/fungi colonies due to nitrogen depletion and there are plenty of parasitic plants that can't produce their own nutrition.

I wonder what the plan is, if any, to increase "plant tolerance and consumption of acetate as a heterotrophic energy source".

"Intelligent life" as we know it requires multi-cellular heterotrophic organisms.

Some dinoflagellates are photosynthetic, using sunlight to produce energy, while others are heterotrophic, consuming other organisms for nutrients.") from somebody whoi oughta know I was told for the east coast it's ctenaphores (the c is cilent) the largest mini creatures that use cilia to move.

Algae and fungus can be done in the dark, but there seem to be some limitations to full plants still: "Plant tolerance and consumption of acetate as a heterotrophic energy source will need to be increased to fully decouple plants from biological photosynthesis."