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Subject: CBSE Biology, General Bio
Pyrimidine Nucleobase
Pyrimidine nucleobases (C and U) are one of the two nitrogenous bases found in RNA. Pyrimidine bases in uracil (U) form hydrogen bonds with the purine Adenine (A) to form base pairs in the RNA. In a DNA molecule, the nucleotide thymine (T) is used instead of uracil (U).
Hydrogen
Hydrogen atoms in uracil (U) play important roles in its structure and function. They participate in forming hydrogen bonds, which help stabilize the structure of uracil (U). Additionally, some hydrogen atoms in uracil (U) can participate in chemical reactions, which are important for its biological function.
Nitrogen
Nitrogen atoms play a crucial role in the structure of RNA by forming the base pairs that make up the genetic code. The nitrogenous bases, adenine (A), uracil (U), guanine (G), and cytosine (C), are the building blocks of RNA.
Carbon
Carbon atoms play an essential role in the RNA structure by providing the backbone of the RNA molecule. They contribute to the structural stability of uracil (U) through their involvement in forming base-pairing interactions with other nucleotides.
Oxygen
Oxygen atoms are crucial components of uracil (U), a nucleotide base found in RNA. They are involved in forming key hydrogen bonds with other bases and molecules, which stabilize the structure of RNA. Additionally, oxygen atoms contribute to Uracil's role in coding genetic information and regulating cellular processes.
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Uracil
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Subject: CBSE Biology, General Bio
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VR ReadyWeb ReadyPyrimidine Nucleobase
Pyrimidine nucleobases (C and U) are one of the two nitrogenous bases found in RNA. Pyrimidine bases in uracil (U) form hydrogen bonds with the purine Adenine (A) to form base pairs in the RNA. In a DNA molecule, the nucleotide thymine (T) is used instead of uracil (U).
Hydrogen
Hydrogen atoms in uracil (U) play important roles in its structure and function. They participate in forming hydrogen bonds, which help stabilize the structure of uracil (U). Additionally, some hydrogen atoms in uracil (U) can participate in chemical reactions, which are important for its biological function.
Nitrogen
Nitrogen atoms play a crucial role in the structure of RNA by forming the base pairs that make up the genetic code. The nitrogenous bases, adenine (A), uracil (U), guanine (G), and cytosine (C), are the building blocks of RNA.
Carbon
Carbon atoms play an essential role in the RNA structure by providing the backbone of the RNA molecule. They contribute to the structural stability of uracil (U) through their involvement in forming base-pairing interactions with other nucleotides.
Oxygen
Oxygen atoms are crucial components of uracil (U), a nucleotide base found in RNA. They are involved in forming key hydrogen bonds with other bases and molecules, which stabilize the structure of RNA. Additionally, oxygen atoms contribute to Uracil's role in coding genetic information and regulating cellular processes.