Sandbox 52

From Proteopedia

(Difference between revisions)
Jump to: navigation, search
(Hydrogen Bonding)
Line 4: Line 4:
<!-- PLEASE ADD YOUR CONTENT BELOW HERE -->
<!-- PLEASE ADD YOUR CONTENT BELOW HERE -->
==Introduction==
==Introduction==
-
The <scene name='Sandbox_52/Adenylate_kinase_chain_a/1'>secondary structure</scene> in chain A of adenylate kinase shows multiple alpha helicies and beta sheets. These <scene name='Sandbox_52/Helicies_and_beta_sheets/1'>alpha helicies and beta sheets</scene> can be shown in different colors, with the alpha helicies shown in cyan and the beta sheets shown in red.
+
Adenylate kinase is an enzyme that catalyzes the following reaction: ATP+ AMP <-> ADP + ADP. This is a very useful reaction in the body, since it allows the body to maintain homeostasis in levels of ATP, an energy source in the body. Its unique structure allows it to bind the substrates or other non-hydrolysable ligands. The <scene name='Sandbox_52/Adenylate_kinase_chain_a/1'>secondary structure</scene> in chain A of adenylate kinase shows multiple <scene name='Sandbox_52/Helicies_and_beta_sheets/1'>alpha helicies(cyan) and beta sheets(red)</scene>. ==Hydrogen Bonding==
-
==Hydrogen Bonding==
+
The <scene name='Sandbox_52/Hydrogen_bonds_shown/1'>hydrogen bonds</scene> within the structure of the protein can also be displayed in green. These can be seen within the alpha helicies, helping maintain the structure of the helix, and are also between beta sheets. Most of the beta sheets are running parallel, as indicated by the crooked hydrogen bonds. They are crooked due to the position of the carbonyl oxygens and amide hydrogens in the structure. This formation is less stable than the straight, parallel hydrogen bonding of the antiparallel sheets.
The <scene name='Sandbox_52/Hydrogen_bonds_shown/1'>hydrogen bonds</scene> within the structure of the protein can also be displayed in green. These can be seen within the alpha helicies, helping maintain the structure of the helix, and are also between beta sheets. Most of the beta sheets are running parallel, as indicated by the crooked hydrogen bonds. They are crooked due to the position of the carbonyl oxygens and amide hydrogens in the structure. This formation is less stable than the straight, parallel hydrogen bonding of the antiparallel sheets.
- 
==Hydrophobic and Hydrophilic Interactions==
==Hydrophobic and Hydrophilic Interactions==
-
The <scene name='Sandbox_52/Hydrophobic_residues/2'>hydrophobic residues</scene> on the structure can be seen in yellow sticks. Generally, these residues are clustered in the center of the protein due to the hydrophobic effect created by the surrounding water molecules. The <scene name='Sandbox_52/Hydrophilic_residues/2'>hydrophilic residues</scene> are shown in purple here, and they are generally on the outside of the protein, shielding the hydrophobic residues. There are also <scene name='Sandbox_52/Water_placement/1'>water molecules</scene> around and inside the protein. Water helps stabilize the protein through the hydrophobic effect and also interacts/surrounds the binding site in the center of the protein.
+
The <scene name='Sandbox_52/Hydrophobic_residues/2'>hydrophobic residues</scene> on the structure can be seen in yellow sticks, revealing the distinct structural features, such as side-chains of those residues. Most of these hydrophobic residues are clustered in the center of the protein due to the hydrophobic effect created by the surrounding water molecules. The <scene name='Sandbox_52/Hydrophilic_residues/2'>hydrophilic residues</scene> are shown in purple here, and they are generally on the outside of the protein, shielding the hydrophobic residues. There are also <scene name='Sandbox_52/Water_placement/1'>water molecules</scene> around and inside the protein. Water helps stabilize the protein through the hydrophobic effect and also interacts/surrounds the binding site in the center of the protein.
==Ligand Binding==
==Ligand Binding==
The <scene name='Sandbox_52/Ligand_binding/1'>ligand</scene> is able to bind to the protein through the polar, charged parts of the active site that are shown in red and blue (red being anionic and blue being cationic). The <scene name='Sandbox_52/Catalytic_residues/1'>catalytic residues</scene> are also shown in green. These residues specifically react with the substrate.
The <scene name='Sandbox_52/Ligand_binding/1'>ligand</scene> is able to bind to the protein through the polar, charged parts of the active site that are shown in red and blue (red being anionic and blue being cationic). The <scene name='Sandbox_52/Catalytic_residues/1'>catalytic residues</scene> are also shown in green. These residues specifically react with the substrate.

Revision as of 02:11, 19 October 2012

Please do NOT make changes to this Sandbox. Sandboxes 30-60 are reserved for use by Biochemistry 410 & 412 at Messiah College taught by Dr. Hannah Tims during Fall 2012 and Spring 2013.

Adenylate Kinase

Drag the structure with the mouse to rotate

Introduction

Adenylate kinase is an enzyme that catalyzes the following reaction: ATP+ AMP <-> ADP + ADP. This is a very useful reaction in the body, since it allows the body to maintain homeostasis in levels of ATP, an energy source in the body. Its unique structure allows it to bind the substrates or other non-hydrolysable ligands. The in chain A of adenylate kinase shows multiple . ==Hydrogen Bonding== The within the structure of the protein can also be displayed in green. These can be seen within the alpha helicies, helping maintain the structure of the helix, and are also between beta sheets. Most of the beta sheets are running parallel, as indicated by the crooked hydrogen bonds. They are crooked due to the position of the carbonyl oxygens and amide hydrogens in the structure. This formation is less stable than the straight, parallel hydrogen bonding of the antiparallel sheets.

Hydrophobic and Hydrophilic Interactions

The on the structure can be seen in yellow sticks, revealing the distinct structural features, such as side-chains of those residues. Most of these hydrophobic residues are clustered in the center of the protein due to the hydrophobic effect created by the surrounding water molecules. The are shown in purple here, and they are generally on the outside of the protein, shielding the hydrophobic residues. There are also around and inside the protein. Water helps stabilize the protein through the hydrophobic effect and also interacts/surrounds the binding site in the center of the protein.

Ligand Binding

The is able to bind to the protein through the polar, charged parts of the active site that are shown in red and blue (red being anionic and blue being cationic). The are also shown in green. These residues specifically react with the substrate.

Personal tools