The restriction enzyme EcoRI cuts DNA at a specific sequence of bases, which is GAATTC.
The specific DNA sequence recognized by the EcoRI restriction enzyme, known as the EcoRI cut site, is 5'-GAATTC-3'.
The restriction enzyme used to cut the DNA was EcoRI.
The restriction enzyme EcoR1 specifically cuts the DNA sequence at the recognition site GAATTC.
Template Sequence
It is a sequence of DNA that is also a palindrom. i.e. the complimentary sequence of DNA would read the same way (but in the other direction). g a a t t c c t t a a g Moreover it is the sequence of DNA recognised by the restriction endonuclease EcoR1, the first such enzyme to be discovered. These enzymes have been important tools in science allowing pieces of DNA to be specifically excised and manipulated.
The specific DNA sequence recognized by the EcoRI restriction enzyme, known as the EcoRI cut site, is 5'-GAATTC-3'.
The restriction enzyme used to cut the DNA was EcoRI.
A restriction enzyme (also known as restriction endonuclease) is protein which cuts DNA up at specific sequences (called restriction sites) in a genome. For example, the commonly used restriction endonuclease EcoRI recognizes every DNA sequence GAATTC and cuts at the point between the guanine and the adenine in that sequence, forming blunt ends (or straight, even ends). Interestingly and coincidentially, the restriction site for most restriction enzymes are genetic palindromes (the sequence reads exactly the same backwards on the complementary strand). In the case of EcoRI, the two complementary DNA strands for the restriction site are:5'-- GAATTC --3'3'-- CTTAAG --5'After this DNA sequence is cut, it might look something like this:5'-- G AATTC --3'3'-- C TTAAG --5'
EcoRI is a restriction enzyme that recognizes and cuts DNA at the specific palindromic sequence GAATTC. It cleaves between the G and the A on each strand, resulting in sticky ends that can be used for DNA cloning and other molecular biology applications. The recognition sequence is crucial for the enzyme's function in genetic engineering.
EcoRI is a restriction enzyme that recognizes and cuts DNA at a specific base pattern: the palindromic sequence GAATTC. It cleaves between the G and the A on each strand, resulting in "sticky ends" that can facilitate the ligation of DNA fragments. This characteristic makes EcoRI a valuable tool in molecular biology for cloning and genetic engineering.
The restriction enzyme EcoR1 specifically cuts the DNA sequence at the recognition site GAATTC.
Template Sequence
A restriction enzyme will cut a DNA sequence only if it matches the specific recognition sequence of that enzyme. These enzymes are highly specific and will cleave the DNA at a particular site when the target sequence is present in the DNA molecule.
Restriction enzymes (also known as restriction endonucleases) are proteins which cut DNA up at specific sequences in the genome. For example, the commonly used restriction endonuclease EcoRI recognizes every point in DNA with the sequence GAATTC, and cuts at the point between the Guanine and Adenine. Interestingly, the recognition sequences for most restriction endonucleases are genetic palindromes, e.g., the sequence reads exactly the same backwards on the complementary strand. In the case of EcoRI, the two complementary DNA strands for the recognition sequence are: 5'--GAATTC ---3'3'--CTTAAG--5'
Template Sequence
Recombinant plasmids are cut with the restriction enzyme EcoRI because it recognizes a specific palindromic DNA sequence (GAATTC) and cleaves it at precise locations, creating compatible sticky ends. This allows for the insertion of foreign DNA fragments into the plasmid, facilitating cloning and gene expression. EcoRI's ability to produce cohesive ends promotes efficient ligation of the desired DNA insert, ensuring successful recombinant DNA formation.
Restriction enzymes can be identified based on their specific recognition sequence, which is a short, palindromic DNA sequence that the enzyme binds to and cleaves. Each restriction enzyme recognizes a specific sequence and cuts the DNA at a specific location within or near that sequence. Additionally, the supplier or manufacturer of the enzyme will provide information on its specific recognition sequence and optimal conditions for use.