...a way one strand of nucleotides has...
...known in one strand , by definition...
...of DNA (sense strand). Three N-bases (and...
...form a continuous strand of nucleotides and...
...original DNA template strand. For our purposes...
...the nucleotides. Each strand stays intact and...
...new complimentary anti-parallel strand of nucleotides. The...
...nucleotides. The new strand is formed according...
...in the old strand and phosphodiester bonds...
...the newly synthesizing strand. As the process...
...possesses an original strand (old) of nucleotides...
...a newly synthesized strand. The process is...
...semiconservative replication. Each strand of the original...
...RNA. The sense strand acts as a...

...a single DNA strand to the three-dimensional...
...chains of each strand are like the...
...one from each strand, form rungs. The...
...along each DNA strand. The linear sequence...
...Essentially, because each strand is complementary to...
...bases on one strand can be used...
...DNA molecule, each strand serves as a...
...a new complementary strand. One at a...
...along the template strand according to the...
...have one old strand and one newly...
...one newly made strand. Other competing models,...
...along the template strand, they are added...
...of the new strand by the polymerase....
...to the new strand. The strands in...
...directions. Each DNA strand has a 3’...
...direction of one strand runs counter to...
...of the other strand. DNA polymerases can...
...a growing DNA strand. A new DNA...
...A new DNA strand can only elongate...
...because one parental strand is oriented 3’->5’...
...other antiparallel parental strand is oriented 5’->3’...
...fork, one parental strand (3’-> 5’ into...
...fork), the leading strand, can be used...
...a continuous complementary strand. The other parental...
...The other parental strand (5’->3’ into the...
...fork), the lagging strand, is copied away...
...a single DNA strand. DNA polymerases cannot...
...with the template strand. To start a...
...a single template strand. After formation of...
...fork, the leading strand requires the formation...
...separate. The lagging strand requires formation of...
...the replication fork. Single-strand binding proteins keep...
...fork, the leading strand is copied continuously...
...primer. The lagging strand is copied away...
...of a damaged strand. The gap is...

...radioactively labeled DNA strand. FALSE 28. DNA...

...on the lagging strand from 5' to...
...on the leading strand from 5' to...
...synthesis on lagging strand takes place________________. A....
...copy of leading strand D. by RNA...
...only 33. DNA strand is replicated continuously...
...___________. A. primary strand B. secondary strand...
...strand B. secondary strand C. leading strand...
...strand C. leading strand D. lagging strand....
...strand D. lagging strand. 34. Which of...
...on the lagging strand from 5' to...
...synthesis in lagging strand takes place________________. A....
...copy of leading strand D. by RNA...
...only 49. DNA strand is replicated smoothly...
...___________. A. primary strand B. Secondary strand...
...strand B. Secondary strand C. leading strand...
...strand C. leading strand D. lagging strand....
...strand D. lagging strand. 50. Which of...

...polynucleotide strands. Each strand is a long...
...polynucleotide is a strand of individual nucleotides....
...sequence of one strand dictates the identity...
...on the other strand. 6.2 During DNA...
...and each separated strand serves as a...
...build a new strand following the base-pairing...
...2. Each DNA strand serves as a...
...of the other strand. a. Base-pairing rules...
...one newly created strand and one strand...
...strand and one strand from the original...
...to the existing strand. b. Base-pairing rules...
...separates, and one strand is used to...
...helix. 2. One strand serves as a...
...a new DNA strand that is complementary...
...give you a strand of DNA that...
...is the matching strand? TACG • This...
...give you a strand of DNA that...
...is the matching strand of mRNA? UACG...
...give you a strand of mRNA that...
...the complementary DNA strand as a probe....

...two strands. Each strand has a back-...
...backbone holds the strand together, but does...
...strands. The parental strand is unwound and...
...two strands. (b)Each strand is a chain...
...P of nitrogenous strand are connected are...

...of a single strand. In DNA or...
...transcription, a DNA strand provides a template...
...a complementary RNA strand. Just as a...
...as a DNA strand provides a template...
...each new complementary strand during DNA replication,...
...transcription, one DNA strand, the template strand,...
...strand, the template strand, provides a template...
...A given DNA strand can be the...
...be the template strand for some genes...
...regions, the complementary strand may function as...
...Like a new strand of DNA, the...
...to the template strand of DNA. The...
...along the nontemplate strand. These codons are...
...to the template strand and thus identical...
...the nontemplate DNA strand is called the...
...called the “coding strand.” During translation, the...
...from the template strand of a gene....
...sequence determines which strand of the DNA...
...of the growing strand. Behind the point...
...time. A growing strand of RNA trails...
...of each new strand reflects how far...
...consists of a strand of about 80...
...the DNA’s template strand leads to an...

...a single DNA strand to the three-dimensional...
...chains of each strand are like the...
...one from each strand, form rungs. The...
...along each DNA strand. The linear sequence...
...replicates. Because each strand is complementary to...
...bases on one strand can be used...
...DNA molecule, each strand serves as a...
...a new complementary strand. One at a...
...along the template strand according to the...
...has one old strand and one newly...
...one newly made strand. Two competing models—the...
...relieve this strain. Single-strand binding proteins keep...
...with the template strand. The initial nucleotide...
...the parental DNA strand as a template....
...The new DNA strand starts from the...
...along the template strand, they are added...
...of the new strand by the polymerase....
...a DNA template strand, along which complementary...
...a growing DNA strand comes from a...
...of a DNA strand, the last two...
...to the new strand. The strands in...
...directions. Each DNA strand has a 3...
...direction of one strand runs opposite the...
...of the other strand. DNA polymerases can...
...a growing DNA strand. A new DNA...
...A new DNA strand can elongate only...
...Along one template strand, DNA polymerase III...
...synthesize a complementary strand continuously by elongating...
...on that template strand and continuously adds...
...the new complementary strand as the fork...
...progresses. The DNA strand made by this...
...called the leading strand, requires a single...
...The other parental strand (53 into the...
...fork), the lagging strand, is copied away...
...Unlike the leading strand, which elongates continuously,...
...a single DNA strand. Although only one...
...on the leading strand, each Okazaki fragment...
...on the lagging strand must be primed...
...a continuous DNA strand. To summarize: At...
...fork, the leading strand is copied continuously...
...primer. The lagging strand is copied away...
...on each template strand, “reel in” the...
...molecules. The lagging strand is looped back...
...of the lagging strand enables more Okazaki...
...of a damaged strand, and the resulting...
...using the undamaged strand as a template....