If TACGTT is read 5'-TACGTT-3' then the complimentary strand will read 5'-AACGTA-3'. Since the template strand is traditionally written in the 5' to 3' direction then the complimentary strand, written in the same manner, would be AACGTA not ATGCAA. The four bases, adenine(A), thyamine(T), cytosin(C), and guanine(G) bond together in pairs. A - T, and C - G. They do not pair with any other base unless in the case of RNA, when thyamine is replaced with uracil.
A double helix has twice the number of bases in one strand, so after adding the complementary strand, the double helix will have the sum of the bases in both strands. This is because each base pairs with its complementary base (A with T, and G with C) across the two strands.
The DNA strand that has the same bases as "AGTAAC" would be its complementary strand, which is "TCATTG." In DNA, adenine (A) pairs with thymine (T), and guanine (G) pairs with cytosine (C), so each base on one strand is matched by its complementary base on the opposite strand.
A binds with T, G binds with C.Therefore the complementary strand for ATCGCATT would be TAGCGTAA.
The complementary DNA strand is formed by pairing adenine (A) with thymine (T) and cytosine (C) with guanine (G). Therefore, if one strand has the sequence gta-gca, the complementary strand would have the sequence cat-cgt.
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.
The enzyme responsible for adding complementary DNA bases to an exposed DNA strand is DNA polymerase.
The complementary strand for bases AAGCCA would be TTCGGT. In DNA, adenine pairs with thymine and guanine pairs with cytosine.
A double helix has twice the number of bases in one strand, so after adding the complementary strand, the double helix will have the sum of the bases in both strands. This is because each base pairs with its complementary base (A with T, and G with C) across the two strands.
The new strand is complementary to the original strand. This means that the bases on the new strand pair with the bases on the original strand according to the rules of base pairing (A with T and G with C).
The DNA strand that has the same bases as "AGTAAC" would be its complementary strand, which is "TCATTG." In DNA, adenine (A) pairs with thymine (T), and guanine (G) pairs with cytosine (C), so each base on one strand is matched by its complementary base on the opposite strand.
A binds with T, G binds with C.Therefore the complementary strand for ATCGCATT would be TAGCGTAA.
The complementary DNA strand is formed by pairing adenine (A) with thymine (T) and cytosine (C) with guanine (G). Therefore, if one strand has the sequence gta-gca, the complementary strand would have the sequence cat-cgt.
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 complementary section on the other strand would be GATCTTG. This is because in DNA, adenine pairs with thymine and cytosine pairs with guanine, so the complementary bases are G-C, A-T, T-A, and C-G.
DNA polymerase is responsible for assembling complementary nucleotide bases during DNA replication. It adds nucleotides to the growing DNA strand using the existing strand as a template.
During DNA replication, the enzyme DNA polymerase assembles complementary nucleotide bases. It adds nucleotides to the growing DNA strand by matching them with their complementary bases on the template strand. Additionally, RNA primase synthesizes a short RNA primer that provides a starting point for DNA polymerase to begin replication.