Get Putting It All Together Answer Key

One end of the DNA molecule is known as 5′ (five prime), and the other end is known as 3′. (three prime). The numbers 3′ and 5′ refer to the number of carbon atoms in a deoxyribose sugar molecule that a phosphate group binds to. The carbons in sugar are numbered clockwise, beginning with the oxygen atom.

One end of the DNA molecule is known as 5′ (five prime), and the other end is known as 3′. (three prime). The numbers 3′ and 5′ refer to the number of carbon atoms in a deoxyribose sugar molecule that a phosphate group binds to. The carbons in sugar are numbered clockwise, beginning with the oxygen atom.

One end of the DNA molecule is known as 5′ (five prime), and the other end is known as 3′. (three prime). The numbers 3′ and 5′ refer to the number of carbon atoms in a deoxyribose sugar molecule that a phosphate group binds to. The carbons in sugar are numbered clockwise, beginning with the oxygen atom.

The need for accuracy probably explains why DNA replication occurs only in the 5′-to-3′ direction. If there were a DNA polymerase that added deoxyribonucleoside triphosphates in the 3′-to-5′ direction, the growing 5′-chain end, rather than the incoming mononucleotide, would carry the activating triphosphate.

The need for accuracy probably explains why DNA replication occurs only in the 5′-to-3′ direction. If there were a DNA polymerase that added deoxyribonucleoside triphosphates in the 3′-to-5′ direction, the growing 5′-chain end, rather than the incoming mononucleotide, would carry the activating triphosphate.

One end of the DNA molecule is known as 5′ (five prime), and the other end is known as 3′. (three prime). The numbers 3′ and 5′ refer to the number of carbon atoms in a deoxyribose sugar molecule that a phosphate group binds to. The carbons in sugar are numbered clockwise, beginning with the oxygen atom.

The need for accuracy probably explains why DNA replication occurs only in the 5′-to-3′ direction. If there were a DNA polymerase that added deoxyribonucleoside triphosphates in the 3′-to-5′ direction, the growing 5′-chain end, rather than the incoming mononucleotide, would carry the activating triphosphate.

The complete process of DNA Replication involves the following steps: Recognition of initiation point. ... Unwinding of DNA – ... Template DNA – ... RNA Primer – ... Chain Elongation – ... Replication forks – ... Proof reading – ... Removal of RNA primer and completion of DNA strand –

The complete process of DNA Replication involves the following steps: Recognition of initiation point. ... Unwinding of DNA – ... Template DNA – ... RNA Primer – ... Chain Elongation – ... Replication forks – ... Proof reading – ... Removal of RNA primer and completion of DNA strand –

The need for accuracy probably explains why DNA replication occurs only in the 5′-to-3′ direction. If there were a DNA polymerase that added deoxyribonucleoside triphosphates in the 3′-to-5′ direction, the growing 5′-chain end, rather than the incoming mononucleotide, would carry the activating triphosphate.

The complete process of DNA Replication involves the following steps: Recognition of initiation point. ... Unwinding of DNA – ... Template DNA – ... RNA Primer – ... Chain Elongation – ... Replication forks – ... Proof reading – ... Removal of RNA primer and completion of DNA strand –

3' end/5' end: A nucleic acid strand is inherently directional, and the "5 prime end" has a free hydroxyl (or phosphate) on a 5' carbon and the "3 prime end" has a free hydroxyl (or phosphate) on a 3' carbon (carbon atoms in the sugar ring are numbered from 1' to 5').

The complete process of DNA Replication involves the following steps: Recognition of initiation point. ... Unwinding of DNA – ... Template DNA – ... RNA Primer – ... Chain Elongation – ... Replication forks – ... Proof reading – ... Removal of RNA primer and completion of DNA strand –

3' end/5' end: A nucleic acid strand is inherently directional, and the "5 prime end" has a free hydroxyl (or phosphate) on a 5' carbon and the "3 prime end" has a free hydroxyl (or phosphate) on a 3' carbon (carbon atoms in the sugar ring are numbered from 1' to 5').

3' end/5' end: A nucleic acid strand is inherently directional, and the "5 prime end" has a free hydroxyl (or phosphate) on a 5' carbon and the "3 prime end" has a free hydroxyl (or phosphate) on a 3' carbon (carbon atoms in the sugar ring are numbered from 1' to 5').

Replication occurs in three major steps: the opening of the double helix and separation of the DNA strands, the priming of the template strand, and the assembly of the new DNA segment. During separation, the two strands of the DNA double helix uncoil at a specific location called the origin.

3' end/5' end: A nucleic acid strand is inherently directional, and the "5 prime end" has a free hydroxyl (or phosphate) on a 5' carbon and the "3 prime end" has a free hydroxyl (or phosphate) on a 3' carbon (carbon atoms in the sugar ring are numbered from 1' to 5').

Replication occurs in three major steps: the opening of the double helix and separation of the DNA strands, the priming of the template strand, and the assembly of the new DNA segment. During separation, the two strands of the DNA double helix uncoil at a specific location called the origin.

Replication occurs in three major steps: the opening of the double helix and separation of the DNA strands, the priming of the template strand, and the assembly of the new DNA segment. During separation, the two strands of the DNA double helix uncoil at a specific location called the origin.

The need for accuracy probably explains why DNA replication occurs only in the 5′-to-3′ direction. If there were a DNA polymerase that added deoxyribonucleoside triphosphates in the 3′-to-5′ direction, the growing 5′-chain end, rather than the incoming mononucleotide, would carry the activating triphosphate.

Replication occurs in three major steps: the opening of the double helix and separation of the DNA strands, the priming of the template strand, and the assembly of the new DNA segment. During separation, the two strands of the DNA double helix uncoil at a specific location called the origin.

The need for accuracy probably explains why DNA replication occurs only in the 5′-to-3′ direction. If there were a DNA polymerase that added deoxyribonucleoside triphosphates in the 3′-to-5′ direction, the growing 5′-chain end, rather than the incoming mononucleotide, would carry the activating triphosphate.

The 5' and 3' mean "five prime" and "three prime", which indicate the carbon numbers in the DNA's sugar backbone. The 5' carbon has a phosphate group attached to it and the 3' carbon a hydroxyl (-OH) group. This asymmetry gives a DNA strand a "direction".

The need for accuracy probably explains why DNA replication occurs only in the 5′-to-3′ direction. If there were a DNA polymerase that added deoxyribonucleoside triphosphates in the 3′-to-5′ direction, the growing 5′-chain end, rather than the incoming mononucleotide, would carry the activating triphosphate.

The need for accuracy probably explains why DNA replication occurs only in the 5′-to-3′ direction. If there were a DNA polymerase that added deoxyribonucleoside triphosphates in the 3′-to-5′ direction, the growing 5′-chain end, rather than the incoming mononucleotide, would carry the activating triphosphate.

The 5' and 3' mean "five prime" and "three prime", which indicate the carbon numbers in the DNA's sugar backbone. The 5' carbon has a phosphate group attached to it and the 3' carbon a hydroxyl (-OH) group. This asymmetry gives a DNA strand a "direction".

In DNA, one strand will run from 5' to 3' and the complementary strand will run anti-parallel, from 3' to 5'. The 5' end is identified by the presence of the phosphate group and the 3' end is identified as ending in the pentose sugar (ribose or deoxyribose).

The 5' and 3' mean "five prime" and "three prime", which indicate the carbon numbers in the DNA's sugar backbone. The 5' carbon has a phosphate group attached to it and the 3' carbon a hydroxyl (-OH) group. This asymmetry gives a DNA strand a "direction".

The 5' and 3' mean "five prime" and "three prime", which indicate the carbon numbers in the DNA's sugar backbone. The 5' carbon has a phosphate group attached to it and the 3' carbon a hydroxyl (-OH) group. This asymmetry gives a DNA strand a "direction".

In DNA, one strand will run from 5' to 3' and the complementary strand will run anti-parallel, from 3' to 5'. The 5' end is identified by the presence of the phosphate group and the 3' end is identified as ending in the pentose sugar (ribose or deoxyribose).

0:43 2:24 5' 3' ends of DNA and RNA - YouTube YouTube Start of suggested clip End of suggested clip And transcription will be described on the next. Slide. This zoomed out picture might more clearlyMoreAnd transcription will be described on the next. Slide. This zoomed out picture might more clearly show that the 3 prime end is the end that ceases with a hydroxide.

In DNA, one strand will run from 5' to 3' and the complementary strand will run anti-parallel, from 3' to 5'. The 5' end is identified by the presence of the phosphate group and the 3' end is identified as ending in the pentose sugar (ribose or deoxyribose).

In DNA, one strand will run from 5' to 3' and the complementary strand will run anti-parallel, from 3' to 5'. The 5' end is identified by the presence of the phosphate group and the 3' end is identified as ending in the pentose sugar (ribose or deoxyribose).

The 3′-end (three prime end) of a strand is so named due to it terminating at the hydroxyl group of the third carbon in the sugar-ring, and is known as the tail end.

0:43 2:24 5' 3' ends of DNA and RNA - YouTube YouTube Start of suggested clip End of suggested clip And transcription will be described on the next. Slide. This zoomed out picture might more clearlyMoreAnd transcription will be described on the next. Slide. This zoomed out picture might more clearly show that the 3 prime end is the end that ceases with a hydroxide.

0:43 2:24 5' 3' ends of DNA and RNA - YouTube YouTube Start of suggested clip End of suggested clip And transcription will be described on the next. Slide. This zoomed out picture might more clearlyMoreAnd transcription will be described on the next. Slide. This zoomed out picture might more clearly show that the 3 prime end is the end that ceases with a hydroxide.

0:43 2:24 5' 3' ends of DNA and RNA - YouTube YouTube Start of suggested clip End of suggested clip And transcription will be described on the next. Slide. This zoomed out picture might more clearlyMoreAnd transcription will be described on the next. Slide. This zoomed out picture might more clearly show that the 3 prime end is the end that ceases with a hydroxide.

The 3′-end (three prime end) of a strand is so named due to it terminating at the hydroxyl group of the third carbon in the sugar-ring, and is known as the tail end.

0:43 2:24 5' 3' ends of DNA and RNA - YouTube YouTube Start of suggested clip End of suggested clip And transcription will be described on the next. Slide. This zoomed out picture might more clearlyMoreAnd transcription will be described on the next. Slide. This zoomed out picture might more clearly show that the 3 prime end is the end that ceases with a hydroxide.

The 3′-end (three prime end) of a strand is so named due to it terminating at the hydroxyl group of the third carbon in the sugar-ring, and is known as the tail end.

The 3′-end (three prime end) of a strand is so named due to it terminating at the hydroxyl group of the third carbon in the sugar-ring, and is known as the tail end.

0:43 2:24 5' 3' ends of DNA and RNA - YouTube YouTube Start of suggested clip End of suggested clip And transcription will be described on the next. Slide. This zoomed out picture might more clearlyMoreAnd transcription will be described on the next. Slide. This zoomed out picture might more clearly show that the 3 prime end is the end that ceases with a hydroxide.

The 3′-end (three prime end) of a strand is so named due to it terminating at the hydroxyl group of the third carbon in the sugar-ring, and is known as the tail end.

0:43 2:24 5' 3' ends of DNA and RNA - YouTube YouTube Start of suggested clip End of suggested clip And transcription will be described on the next. Slide. This zoomed out picture might more clearlyMoreAnd transcription will be described on the next. Slide. This zoomed out picture might more clearly show that the 3 prime end is the end that ceases with a hydroxide.

The 3′-end (three prime end) of a strand is so named due to it terminating at the hydroxyl group of the third carbon in the sugar-ring, and is known as the tail end.

The 3′-end (three prime end) of a strand is so named due to it terminating at the hydroxyl group of the third carbon in the sugar-ring, and is known as the tail end.