since rna is single stranded........it only needs one complementary strand......!
Replication and transcription involves a parental DNA strand that is the foundation on which the products are built on.Replication and transcription both have initiation step which involve the breakage of the parental DNA strand.Replication and transcription both have specific proteins that keep the polymerase molecule attached to the parental DNA strand. There are elongation factors for transcription and sliding clamp for replication.Both processes use DNA topoisomerases to relieve supercoiling.Both processes only proceed in the 5' to 3' direction.Replication and transcription both involve the addition of specific 3' endings. In replication, it is the addition of the GGGTTA sequence by telomerase. In transcription, it is the addition of the poly-A tail.Both processes used nucleotides as the language on which the daughter strands come from.Replication and transcription involve the hydrolysis of a phosphodiester bonds to begin their process.Both processes take place in the nucleus.
The two DNA strands are the coding (sense) strand and the template (antisense) strand. The coding strand carries the genetic information for protein synthesis, while the template strand is used to transcribe messenger RNA.
In the replication part, replication ensures that each new cell will have one complete set of genetic instructions. it does this by making identical strands of chromosomes. transcription enables to adjust to changing demands. it changes certain types of strands on the DNA
Both involve the DNA double helix being "unzipped" (the two strands being separated) and nucleotides attaching to the newly exposed surface. Both create a copy of the DNA and occur in the nucleus.
No, DNA replication does not take place in the same direction along both strands of the DNA. It occurs in opposite directions on the two strands, known as the leading and lagging strands.
Symmetrical transcription refers to a process in molecular biology where RNA is synthesized from both strands of a DNA template, resulting in RNA molecules that are complementary to both strands. This can occur during certain transcription events where both strands of DNA are utilized to produce RNA, often leading to the formation of double-stranded RNA. In some organisms, this can be a part of regulatory mechanisms or viral replication. It contrasts with the more common asymmetrical transcription, where only one strand serves as the template for RNA synthesis.
Transcription and DNA replication are distinct processes in molecular biology. Transcription involves synthesizing RNA from a DNA template, where only specific genes are copied to produce messenger RNA (mRNA), while DNA replication involves duplicating the entire DNA molecule to ensure that each daughter cell receives an identical copy of the genome. Additionally, during transcription, only one strand of the DNA is read, whereas in replication, both strands serve as templates for creating two new DNA strands.
One difference between transcription and DNA replication is that transcription involves synthesizing RNA from a DNA template, while DNA replication involves duplicating the entire DNA molecule to create two identical copies. During transcription, only a specific segment of DNA is copied into RNA, whereas in replication, both strands of the DNA double helix are replicated. Additionally, transcription uses RNA polymerase, while replication relies on DNA polymerase.
During DNA replication, both strands of the double-stranded DNA molecule serve as templates for the synthesis of a new complementary strand. This process ensures that the genetic information is accurately copied and passed on to daughter cells.
DNA helicase plays a crucial role in both DNA replication and transcription by unwinding the double-stranded DNA helix to facilitate the processes. In DNA replication, helicase unwinds the DNA at the replication fork to allow DNA polymerase access to the template strands. In transcription, helicase unwinds the DNA in front of the RNA polymerase to allow for the synthesis of RNA.
It splits down the middle due to the action of the enzyme helicase. This exposes the nitrogen bases on both strands of the DNA.
A chromatin is the material that makes up both mitotic and inter phase chromosomes; a complex of proteins and DNA strands that are loosely coiled such that translation and transcription can occur.
Replication and transcription involves a parental DNA strand that is the foundation on which the products are built on.Replication and transcription both have initiation step which involve the breakage of the parental DNA strand.Replication and transcription both have specific proteins that keep the polymerase molecule attached to the parental DNA strand. There are elongation factors for transcription and sliding clamp for replication.Both processes use DNA topoisomerases to relieve supercoiling.Both processes only proceed in the 5' to 3' direction.Replication and transcription both involve the addition of specific 3' endings. In replication, it is the addition of the GGGTTA sequence by telomerase. In transcription, it is the addition of the poly-A tail.Both processes used nucleotides as the language on which the daughter strands come from.Replication and transcription involve the hydrolysis of a phosphodiester bonds to begin their process.Both processes take place in the nucleus.
The two DNA strands are the coding (sense) strand and the template (antisense) strand. The coding strand carries the genetic information for protein synthesis, while the template strand is used to transcribe messenger RNA.
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.
No, it does not matter which of the separated DNA chains is used for transcription as both strands can serve as templates for the synthesis of RNA. The enzyme RNA polymerase can bind to either strand and initiate transcription of the complementary RNA molecule.
In the replication part, replication ensures that each new cell will have one complete set of genetic instructions. it does this by making identical strands of chromosomes. transcription enables to adjust to changing demands. it changes certain types of strands on the DNA