the covalent bonds in organic molecules are higher energy bonds than those in water and carbon dioxide.
A term that does not describe a heterotroph is autotroph. Heterotrophs rely on external sources of organic compounds for their nutrition, while autotrophs can produce their own organic compounds through processes like photosynthesis.
Salmonella typhimurium obtains energy through chemosynthesis. This process involves breaking down organic molecules through oxidation reactions to produce energy. It does not have the capability to perform photosynthesis, which involves using light energy to convert carbon dioxide and water into glucose. Salmonella typhimurium is a heterotrophic bacterium, meaning it relies on consuming organic compounds from its environment for energy.
I think what you're asking is, are the materials autotrophic eukaryotes (multicellular organisms that are able to produce their own glucose for energy), like most plants that use photosynthesis to produce glucose from carbon dioxide and water, considered inorganic compounds? sunlight H20+CO2---------> C6H12O6 + O2 the best answer I found was, "Organic compounds are actually compounds containing carbon covalently bonded with a hydrogen. You can say carbon is the main thing here. Compounds of carbon [except oxides, carbonates, bicarbonates] are termed as organic. Water does not contain a carbon atom. So it is inorganic. Carbon dioxide is considered by chemists as inorganic, along with carbon monoxide, carbonates and bicarbonates. Nature has not distinguished compounds into inorganic and organic compounds that clearly. These compounds of carbon are just assumed to be inorganic. Also there is that one thing about carbon being covalently bonded with hydrogen in organic compounds. Due to that criteria carbon dioxide is considered inorganic. But actually there is no clear reason."
The process you are referring to is cellular respiration. During cellular respiration, organic compounds such as glucose are broken down in the presence of oxygen to produce ATP, which is the cell's energy currency. This process occurs in the mitochondria of eukaryotic cells.
Archaea can be either heterotrophic or autotrophic. Some archaea are capable of obtaining carbon and energy by consuming organic compounds from their environment, making them heterotrophic. Others can produce their own organic compounds from inorganic sources, making them autotrophic.
Yes, phenol can undergo oxidation. It can be oxidized to form quinones or benzoquinones through the loss of hydrogen atoms. This process is often used in organic synthesis to produce various chemical compounds.
A ConsumerProducers are usually green plants that produce organic compounds by photosynthesis.There are some producers that produce organic compounds through chemosynthesis.
Producers are organisms, like green plants, that produce organic compounds from inorganic compounds. These are also a type of Autotroph.
Mitochondria use rich organic compounds, glucose, to produce ATP.
They oxidize inorganic compounds as a source of energy.ORChemoautotrophic bacteria uses energy produced by oxidizing or reducing chemical substances. The energy released from oxidation or reduction is used to synthesize organic compounds. Hence they don't need sunlight.This chemosynthesis does not and this is how it differs from photosynthesis.
organic molecules contain
Plants do this.
Organic compounds are generally more flammable than inorganic compounds. This is because organic compounds contain carbon and hydrogen, which readily react with oxygen in the air to produce heat and light. Inorganic compounds, on the other hand, often have stronger bonds that make them less reactive and less flammable.
Heterotrophic because it needs to ingest other organisms to produce the necessary organic compounds for life functions. Autotrophs can make their own organic compounds from inorganic compounds which mollusk, such as squids, cannot do.
Nitrogen oxides are not ionic compounds.
Producers are organisms like green plants, which produce organic compounds from inorganic compounds. The plants are then eaten by consumers like the grazing animals. Plants are known as the primary producers.
Heterotrophs derive their metabolic energy from consuming other organisms or organic matter as they cannot produce their own food through photosynthesis or chemosynthesis. This is in contrast to autotrophs, which can produce their own food using energy from sunlight or inorganic compounds.