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{{Sandbox_Reserved_O'Brochta_HLSC322}}<!-- PLEASE ADD YOUR CONTENT BELOW HERE -->
{{Sandbox_Reserved_O'Brochta_HLSC322}}<!-- PLEASE ADD YOUR CONTENT BELOW HERE -->
==Your Heading Here (maybe something like 'Structure')==
{{Sandbox_Reserved_O'Brochta_HLSC322}}<!-- PLEASE ADD YOUR CONTENT BELOW HERE -->
<StructureSection load='1stp' size='340' side='right' caption='Caption for this structure' scene=''>
This is a default text for your page ''''''. Click above on '''edit this page''' to modify. Be careful with the &lt; and &gt; signs.
You may include any references to papers as in: the use of JSmol in Proteopedia <ref>DOI 10.1002/ijch.201300024</ref> or to the article describing Jmol <ref>PMID:21638687</ref> to the rescue.


== References ==
=='Function"==
H.M. Berman, J. Westbrook, Z. Feng, G. Gilliland, T.N. Bhat, H. Weissig, I.N. Shindyalov, P.E. Bourne.
(2000) The Protein Data Bank Nucleic Acids Research, 28: 235-242.


== Disease ==


== Relevance ==


== Structural highlights ==


This is a sample scene created with SAT to <scene name="/12/3456/Sample/1">color</scene> by Group, and another to make <scene name="/12/3456/Sample/2">a transparent representation</scene> of the protein. You can make your own scenes on SAT starting from scratch or loading and editing one of these sample scenes.


</StructureSection>
The protein complex participates in placing the amino acids in their correct order when messenger RNA is translated into a protein sequence on the ribosome by promoting GTP-dependent binding of tRNA to the A site of the ribosome.  In other words, it is involved with elongation during polypeptide synthesis.
== References ==
 
<references/>
<Structure load='1ttt' size='350' frame='true' align='right' caption='Phe-tRNA, elongation factor EF-TU:GDPNP Ternary complex'
 
{{Sandbox_Reserved_O'Brochta_HLSC322}}<!-- PLEASE ADD YOUR CONTENT BELOW HERE -->
=='Function"==
 
 
 
 
 
The protein complex participates in placing the amino acids in their correct order when messenger RNA is translated into a protein sequence on the ribosome by promoting GTP-dependent binding of tRNA to the A site of the ribosome.  In other words, it is involved with elongation during polypeptide synthesis.
 
<Structure load='1ttt' size='350' frame='true' align='right' caption='Phe-tRNA, elongation factor EF-TU:GDPNP Ternary complex'
 
=='Molecules it Interacts With and where '==
 
The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.
 
''PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER''
 
 
''PHENYLALANINE''
''MAGNESIUM ION''
 
 
=='Origin'==
 
It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant ''Thermus aquaticus'' (EF-Tu elongation factor, and can be synthetically manufactured.
 
 
=='Structure'==
 
 
It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.
 
 
Specific <scene name='75/751161/Ligand_site/1'>Ligand  Sites</scene> are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.
 
<scene name='75/751161/Basic_positive_residues/2'>Basic and Positive Residues</scene> which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.
 
=='Molecules it Interacts With and where '==
 
The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.
 
''PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER''
 
 
''PHENYLALANINE''
''MAGNESIUM ION''
 
 
=='Origin'==
 
It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant ''Thermus aquaticus'' (EF-Tu elongation factor, and can be synthetically manufactured.
 
 
=='Structure'==
 
 
It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.
 
 
Specific <scene name='75/751161/Ligand_site/1'>Ligand  Sites</scene> are highlighted here.
 
<scene name='75/751161/Basic_positive_residues/2'>Basic and Positive Residues</scene> which play a crucial role in binding to the ribosome during translation.
 
=='Molecules it Interacts With and where '==
 
The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.
 
''PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER''
 
 
''PHENYLALANINE''
''MAGNESIUM ION''
 
 
=='Origin'==
 
It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant ''Thermus aquaticus'' (EF-Tu elongation factor, and can be synthetically manufactured.
 
 
=='Structure'==
 
 
It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.
 
 
Specific <scene name='75/751161/Ligand_site/1'>Ligand  Sites</scene> are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.
 
<scene name='75/751161/Basic_positive_residues/2'>Basic and Positive Residues</scene> which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.
 
=='Molecules it Interacts With and where '==
 
The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.
 
''PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER''
 
 
''PHENYLALANINE''
''MAGNESIUM ION''
 
 
=='Origin'==
 
It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant ''Thermus aquaticus'' (EF-Tu elongation factor, and can be synthetically manufactured.
 
 
=='Structure'==
 
 
It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.
 
 
Specific <scene name='75/751161/Ligand_site/1'>Ligand  Sites</scene> are highlighted here.
 
<scene name='75/751161/Basic_positive_residues/2'>Basic and Positive Residues</scene> which play a crucial role in binding to the ribosome during translation.
 
=='Function"==
 
 
 
 
 
The protein complex participates in placing the amino acids in their correct order when messenger RNA is translated into a protein sequence on the ribosome by promoting GTP-dependent binding of tRNA to the A site of the ribosome.  In other words, it is involved with elongation during polypeptide synthesis.
 
<Structure load='1ttt' size='350' frame='true' align='right' caption='Phe-tRNA, elongation factor EF-TU:GDPNP Ternary complex'
 
=='Molecules it Interacts With and where '==
 
The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.
 
''PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER''
 
 
''PHENYLALANINE''
''MAGNESIUM ION''
 
 
=='Origin'==
 
It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant ''Thermus aquaticus'' (EF-Tu elongation factor, and can be synthetically manufactured.
 
 
=='Structure'==
 
 
It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.
 
 
Specific <scene name='75/751161/Ligand_site/1'>Ligand  Sites</scene> are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.
 
<scene name='75/751161/Basic_positive_residues/2'>Basic and Positive Residues</scene> which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.
 
=='Molecules it Interacts With and where '==
 
The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.
 
''PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER''
 
 
''PHENYLALANINE''
''MAGNESIUM ION''
 
 
=='Origin'==
 
It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant ''Thermus aquaticus'' (EF-Tu elongation factor, and can be synthetically manufactured.
 
 
=='Structure'==
 
 
It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.
 
 
Specific <scene name='75/751161/Ligand_site/1'>Ligand  Sites</scene> are highlighted here.
 
<scene name='75/751161/Basic_positive_residues/2'>Basic and Positive Residues</scene> which play a crucial role in binding to the ribosome during translation.
 
=='Molecules it Interacts With and where '==
 
The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.
 
''PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER''
 
 
''PHENYLALANINE''
''MAGNESIUM ION''
 
 
=='Origin'==
 
It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant ''Thermus aquaticus'' (EF-Tu elongation factor, and can be synthetically manufactured.
 
 
=='Structure'==
 
 
It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.
 
 
Specific <scene name='75/751161/Ligand_site/1'>Ligand  Sites</scene> are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.
 
<scene name='75/751161/Basic_positive_residues/2'>Basic and Positive Residues</scene> which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.
 
=='Molecules it Interacts With and where '==
 
The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.
 
''PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER''
 
 
''PHENYLALANINE''
''MAGNESIUM ION''
 
 
=='Origin'==
 
It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant ''Thermus aquaticus'' (EF-Tu elongation factor, and can be synthetically manufactured.
 
 
=='Structure'==
 
 
It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.
 
 
Specific <scene name='75/751161/Ligand_site/1'>Ligand  Sites</scene> are highlighted here.
 
<scene name='75/751161/Basic_positive_residues/2'>Basic and Positive Residues</scene> which play a crucial role in binding to the ribosome during translation.

Revision as of 20:48, 15 February 2017

genetics is ok

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation.

'Function"

The protein complex participates in placing the amino acids in their correct order when messenger RNA is translated into a protein sequence on the ribosome by promoting GTP-dependent binding of tRNA to the A site of the ribosome. In other words, it is involved with elongation during polypeptide synthesis.

<Structure load='1ttt' size='350' frame='true' align='right' caption='Phe-tRNA, elongation factor EF-TU:GDPNP Ternary complex'

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.


Specific Ligand Sites are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation.

genetics is ok

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation.

'Function"

The protein complex participates in placing the amino acids in their correct order when messenger RNA is translated into a protein sequence on the ribosome by promoting GTP-dependent binding of tRNA to the A site of the ribosome. In other words, it is involved with elongation during polypeptide synthesis.

<Structure load='1ttt' size='350' frame='true' align='right' caption='Phe-tRNA, elongation factor EF-TU:GDPNP Ternary complex'

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.


Specific Ligand Sites are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation.

'Function"

The protein complex participates in placing the amino acids in their correct order when messenger RNA is translated into a protein sequence on the ribosome by promoting GTP-dependent binding of tRNA to the A site of the ribosome. In other words, it is involved with elongation during polypeptide synthesis.

<Structure load='1ttt' size='350' frame='true' align='right' caption='Phe-tRNA, elongation factor EF-TU:GDPNP Ternary complex'

{{Sandbox_Reserved_O'Brochta_HLSC322}}

'Function"

The protein complex participates in placing the amino acids in their correct order when messenger RNA is translated into a protein sequence on the ribosome by promoting GTP-dependent binding of tRNA to the A site of the ribosome. In other words, it is involved with elongation during polypeptide synthesis.

<Structure load='1ttt' size='350' frame='true' align='right' caption='Phe-tRNA, elongation factor EF-TU:GDPNP Ternary complex'

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.


Specific Ligand Sites are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation.

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation.

'Function"

The protein complex participates in placing the amino acids in their correct order when messenger RNA is translated into a protein sequence on the ribosome by promoting GTP-dependent binding of tRNA to the A site of the ribosome. In other words, it is involved with elongation during polypeptide synthesis.

<Structure load='1ttt' size='350' frame='true' align='right' caption='Phe-tRNA, elongation factor EF-TU:GDPNP Ternary complex'

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in <scene name='75/751161/Hetero_domains/1'>Heterodimer </scene> alignment.


Specific Ligand Sites are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation.

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here. The ligands listed above, GDP, Phe, and Mg+2 ion each attach at these locations which are still being explored.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation. They form positive pockets with which negative amino acids can bind to.

'Molecules it Interacts With and where '

The protein binds to GDP as well as the following ligands in order to promote the attachment of the protein complex to the ribosome A site.

PHOSHOAMINOPHOSPHONIC ACID-GUANYLATE ESTER


PHENYLALANINE MAGNESIUM ION


'Origin'

It has domains that are created in yeast (phenyl-transfer RNA) , in the heat resistant Thermus aquaticus (EF-Tu elongation factor, and can be synthetically manufactured.


'Structure'

It has 3 domains. G proteins, Elongation Factors, and the EF-Tu/eEF-1alpha/eIF2-gamma C-terminal domain. It is composed of 6 chains, which combine in Heterodimer alignment.


Specific Ligand Sites are highlighted here.

Basic and Positive Residues which play a crucial role in binding to the ribosome during translation.