The statement that the percentage of "a" is always equal to the percentage of "t" is not attributed to a specific individual in general discourse. This concept might arise in contexts such as mathematics or statistics, where percentages can be compared under certain conditions. If you have a specific context or source in mind, please provide more details for a more accurate response.
The realization that adenine (A) is always equal to thymine (T) and cytosine (C) is always equal to guanine (G) is attributed to the work of Erwin Chargaff. In the 1950s, Chargaff conducted experiments that led to the formulation of Chargaff's rules, which highlighted the base pairing in DNA. This foundational discovery contributed to the understanding of the double helical structure of DNA by James Watson and Francis Crick.
If -t = 5, then t = -5
1 ton is equal to 2000lb
-22
i t is 33%
In a DNA molecule, the bases pair according to Chargaff's rules: adenine (A) pairs with thymine (T) and cytosine (C) pairs with guanine (G). If there are 22 thymine (T) bases, there will also be 22 adenine (A) bases. The percentage of guanine (G) can be determined by knowing that the total percentage of A and T will equal the total percentage of C and G. Therefore, if T = 22, then G will be equal to C, and since A = T, the remaining bases must be equal, leading to G being half of the total bases minus A and T. However, without the specific total number of bases, we can't calculate the exact percentage of G.
According to Chargaff's rules, the percentage of adenine (A) is equal to the percentage of thymine (T), and the percentage of cytosine (C) is equal to the percentage of guanine (G) in a double-stranded DNA molecule. This reflects the complementary base pairing in DNA structure.
The realization that adenine (A) is always equal to thymine (T) and cytosine (C) is always equal to guanine (G) is attributed to the work of Erwin Chargaff. In the 1950s, Chargaff conducted experiments that led to the formulation of Chargaff's rules, which highlighted the base pairing in DNA. This foundational discovery contributed to the understanding of the double helical structure of DNA by James Watson and Francis Crick.
In 1949 Chargaff proposed several rules. Which are as follows;the total number of purine nucleotide(A+G) is equal to the total number of pyrimidine nucleotide(C+T),i.e.(A+G)/C+T)=1;A+G+T+C=1(in terms of molecular fraction)the amount of adenine (A) is always equal to the thymine(T):A=T or A/T=1the amount of guanine (G) is always equal to the cytosine(C):G=C or G/C=1in the bases constitute of DNA ,the number of 6-amino group is equal to the number of 6-keto groups;G+T=A+Tthe numbers (A+T) and (G+C) are the only variables .
A set is said t be an equal set when all the elements are the same. Eg:Let A={1,2,3} and B={1,2,3} All the elements in it is the same thus A and B are equal sets. It is represented as A=B.
A always has the same as T G always has the same as C Adenine, Thyamine, Guanine and Cytocine
to elaberate: lets say "T" is and has always been equal to time and "H" is equal to "Here" (or placement). R is replicate, O is ovate. OR is replicated squared. "T" is also equal to a quam; thus time is square, not liniar.
The concentration of A must be equal to the concentration of T and the concentration of G must be equal to the concentration of C. This is because of the base pair rules that state that A pairs with T and G pairs with C. If you have a gene where [A] is 20%, this means that [T] also equals 20%. This puts the total concentration of A and T at 40%. Therefore the concentration of G and C is 100-40 which is 60%. This means that the concentrations of G and C are each 30%. []=concentration
If -t = 5, then t = -5
t = 9
Yes, A and T are always paired up together. When DNA replicated, adenine and thymine always pair up. However, it's been proven that there is a very very small percentage of extra C, meaning that C and G don't completely pair up because there is about a 0.8% more percentage of C than G. No scientist has been able to prove how or why, though. Basically, A and T always pair up. Same with C and G, there is just a little bit more of C than G.
No.Adenine binds to ThymineGuanine binds to CytosineThis means that the number of A=T and G=CA + G = T + C - but the number of G and T can be different.