The complementary base sequence of a DNA strand is formed by pairing adenine (A) with thymine (T) and cytosine (C) with guanine (G). For the template strand TTGCACG, the complementary sequence would be AACGTGC.
To determine the sequence of the template strand, you need to find the complementary bases to the nontemplate strand (5' ATGGGCGC 3'). The complementary bases are A-T and G-C. Therefore, the sequence of the template strand will be 3' TACCCGCG 5', written in the opposite direction to maintain the 5' to 3' orientation.
To indicate the sequence of the template strand based on the nontemplate strand (5' ATGGGGCGC 3'), you need to determine the complementary bases and reverse the direction. The complementary bases are: T for A, C for G, and G for C. Therefore, the template strand sequence will be 3' TACCCCGCG 5'.
The nucleotide sequence of the mRNA strand is determined by the template DNA strand during transcription. It is complementary to the DNA template and consists of adenine (A), uracil (U), cytosine (C), and guanine (G). For example, if the DNA template strand is 3'-ATCGTACG-5', the corresponding mRNA sequence would be 5'-UAGCAUGC-3'.
The newly synthesized RNA molecule is complementary to the DNA template strand. It pairs with the template strand through base pairing rules (A with U, T with A, G with C, and C with G) to create an mRNA transcript that corresponds to the DNA sequence.
In transcription, only one side of the DNA strand is copied. The enzyme RNA polymerase reads the DNA template and synthesizes a complementary RNA strand based on the sequence of the DNA template.
To determine the sequence of the template strand, you need to find the complementary bases to the nontemplate strand (5' ATGGGCGC 3'). The complementary bases are A-T and G-C. Therefore, the sequence of the template strand will be 3' TACCCGCG 5', written in the opposite direction to maintain the 5' to 3' orientation.
To indicate the sequence of the template strand based on the nontemplate strand (5' ATGGGGCGC 3'), you need to determine the complementary bases and reverse the direction. The complementary bases are: T for A, C for G, and G for C. Therefore, the template strand sequence will be 3' TACCCCGCG 5'.
mRNA is complementary to the template strand of DNA during transcription. The template strand serves as a template for mRNA synthesis, directing the formation of a complementary mRNA transcript.
During DNA replication, the enzyme DNA polymerase catalyses the formation of new strands of DNA, using the old strands as models. DNA has a double-helix structure, with two strands forming each helix. Each strand is made up of DNA nucleotides, with the genetic information encoded in the sequence of different nucleotides (different nucleotides are distinguished by molecules called 'bases' attached to them, so the sequence of nucleotides is known as the 'base sequence'). The base sequence of one strand is complementary to that of its' neighbour - the base A binds with T, and C with G, so if one strand had the sequence ATTACA, the base sequence of the complementary strand would be TAATGT. When DNA polymerase creates a new DNA strand, it does so by matching nucleotides to the base sequence of one of the strands - the template strand. New nucleotides are brought in, which match the template in a complementary fashion (ie. A-T, C-G), and join to become one new strand. This new strand is complementary to the template.
The sequence of nucleotides of the complementary strand will be the nucleotides which bind to the nucleotides of the template. In DNA, adenine binds to thymine and cytosine binds to guanine. The complementary strand will therefore have an adenine where the template strand has a thymine, a guanine where the template has a cytosine, etc. For example: If the template strand is ATG-GGC-CTA-GCT Then the complementary strand would be TAC-CCG-GAT-CGA
The nucleotide sequence of the mRNA strand is determined by the template DNA strand during transcription. It is complementary to the DNA template and consists of adenine (A), uracil (U), cytosine (C), and guanine (G). For example, if the DNA template strand is 3'-ATCGTACG-5', the corresponding mRNA sequence would be 5'-UAGCAUGC-3'.
The template strand of DNA is used to make a complementary copy during DNA replication, while the antisense (non-coding) strand is used as a template for complementary mRNA synthesis during transcription.
During DNA replication, the template strand is used as a guide to create a complementary copy, while the coding strand is not directly involved in the copying process. The template strand determines the sequence of nucleotides in the new DNA strand, while the coding strand has the same sequence as the RNA transcript that will be produced from the new DNA strand.
The complimentary DNA strand to the template sequence atgccatgg is tacggtacc. This is because DNA bases always pair up in a specific way: adenine (A) with thymine (T) and cytosine (C) with guanine (G).
The newly synthesized RNA molecule is complementary to the DNA template strand. It pairs with the template strand through base pairing rules (A with U, T with A, G with C, and C with G) to create an mRNA transcript that corresponds to the DNA sequence.
During transcription the DNA double helix is separated into two individual strands. Each strand may serve as a template for RNA polymerase, which travels along the DNA structure in a 3' to 5' direction. As it progresses down the strand, RNA polymerase synthesizes a pre-messenger RNA strand that is complementary to the sequence on the DNA template. For example if the DNA sequence on the template was 5' ATACA 3', then the pre mRNA sequence synthesized would be 3' UAUGU 5'. (Remember, RNA synthesis utilizes the nucleotide uracil instead of thyamine).
In transcription, only one side of the DNA strand is copied. The enzyme RNA polymerase reads the DNA template and synthesizes a complementary RNA strand based on the sequence of the DNA template.