NO molecule has 15 (odd) electrons, 8 from oxygen and 7 from nitrogen.
The final reduced species in the electron transport chain is water. Oxygen is the final electron acceptor in the chain, and it is reduced to form water.
Ag+
A species that attacks alkenes would likely be an electrophile since alkenes are electron-rich and tend to react with electron-deficient species. Electrophiles are electron-seeking species that are attracted to regions of high electron density, like the double bond in an alkene.
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Yes, NO2 is a radical species with an odd number of electrons. This is due to the unpaired electron present in the nitrogen atom, making it paramagnetic and reactive.
electrophilic addition reaction
NO molecule has 15 (odd) electrons, 8 from oxygen and 7 from nitrogen.
The final reduced species in the electron transport chain is water. Oxygen is the final electron acceptor in the chain, and it is reduced to form water.
In ionic bonding the electron rich species donates electron to the electron lacking species.in this process the electron donating species converts into cation by loosing electron and electron accepting species converts into anion by accepting electron.the ions now combine to from a ionic compound by releasing lattice energy
Aerobic respiration - final electron acceptor is oxygen (O) Anaerobic respiration - final electron acceptor can besulfate (SO42-), nitrate (NO3-), sulfur (S), or fumarate....
No, aerobic bacterial species do not have identical electron acceptors in their electron transport systems. Different species may use different electron acceptors such as oxygen, nitrate, or sulfate depending on their metabolic capabilities and environmental conditions.
Nucleophiles are electron-rich species that donate a pair of electrons to form new chemical bonds, while electrophiles are electron-deficient species that accept a pair of electrons to form new chemical bonds. Nucleophiles attack electrophiles in chemical reactions to facilitate bond formation.
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Electrons or electron rich species.
The charges of NaNO3 break down as follows: Na has a charge of +1 because it loses one electron to become stable, and NO3 has a charge of -1 because it gains one electron to achieve stability. This results in NaNO3 having an overall neutral charge.
The bond present in NaNO3 is an ionic bond. Sodium (Na) donates an electron to the nitrate (NO3) group, forming a positive sodium ion (Na+) and a negative nitrate ion (NO3-), which are held together by electrostatic attraction.