Autotroph and Heterotrophic Equation

Autotroph and Heterotrophic Equation
Autotrophs, as well as heterotrophs, are living things and both are part of certain ecosystems.
The autotrophs and heterotrophs, together form the trophic level of various food pyramids.
Both require sunlight and water to live and obtain energy by the conversion of chemical molecules.
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Difference between Autotrof and heterotroph
The main difference between autotrophs and heterotrophs is that autotrophs can synthesize food themselves, whereas, heterotrophs cannot. Most autotrophs contain chlorophyll pigments, which play a key role in food synthesis.
Chlorophyll is not present in almost all heterotrophs. Autptrophs obtain energy by converting inorganic raw materials into organic compounds, whereas, heterotrophs convert complex organic compounds into simpler energy.
So, this is all about autotrophs and heterotrophs. The movement of nutrients and energy from autotrophs through various levels of heterotrophs, forming a typical food chain. Autotrophs and heterotrophs, together, are an important part of all ecosystems.
Autotrophs make their own food with photosynthesis or chemosynthesis using abiotic components in the ecosystem. Heterotrophs depend on autotrophs for food.
Most autotrophs are chlorophyll containing green plants. All animals, algae, and some bacteria are heterotrophs.
Autotrophs depend on energy from the sun. Heterotrophs depend on solar energy indirectly.
Autotrophs convert inorganic matter into organic matter. Heterotrophs obtain organic substances from autotrophs and utilize them to fulfill their metabolic processes.
Although there are many differences between autotrophs and heterotrophs, they still depend on each other for survival and for the proper rotation of nutrients, and are an integral component of the ecosystem.
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Examples of Autotrophic and Heterotrophic Organisms
There are many differences, but in terms of energy, it all starts with sunlight. Plants absorb energy from the sun and turn it into food. You can sit in the sun for hours. You will feel warm, but you will not absorb any energy. You have to eat to get your energy.
Examples of autotrophic organisms are plants, algae, and some bacteria
Examples of heterotrophic organisms are all animals, fungi, bacteria and many protists
Living organisms obtain chemical energy in one of two ways.

Autotrophic Organism
Autotrophic Organism
Autotrophic organisms, are organisms that can produce their own food by photosynthesis. Food is chemical energy stored in organic molecules. Food provides both energy to do work and carbon to build the body. Because most autotrophs change sunlight to make food, we call the process by which they use photosynthesis. Only three groups of autotrophic organisms, namely: plants, algae, and some bacteria, are capable of transforming life-giving energy.
Autotrophs make food for their own use, but they make enough to support other lives as well. Nearly all other organisms depend on all three groups for the food they produce. Producers, also known as autotrophs, begin the food chain that feeds all life. The food chain will be discussed in the article "food chains and food webs".

Heterotrophic organism
Heterotrophic organisms cannot make their own food, so they must eat or absorb it. For this reason, heterotrophs are also known as consumers. Consumers include all animals and fungi and many protists and bacteria. They may consume autotrophs or other heterotrophs or organic molecules from other organisms.
Heterotrophs show diversity and can appear much more attractive than producers. But heterotrophs are limited by the dependence on the autotrophic organisms that originally made our food. If plants, algae, and autotrophic bacteria disappear from the face of the earth, animals, fungi, and other heterotrophs will soon disappear too. All living things require constant energy input. Only autotrophs can convert the source of the sun into chemical energy in food for other living things.