Note that the ligand is the same as the last example.

Several new ligands of this class have also been developed.

The reasons behind this can be explained by ligand field theory.

An example of a flexible ligand is shown in Figure 4.

The stronger the effect of the ligands then the greater the difference between the high and low energy d groups.

The Fe center is typically not involved in the behavior of the ligand.

In many cases there are more than four equatorial ligands.

This program is very easy to use and allows almost anyone to dock a ligand into a protein.

Others are difusible ligands and thus can have long range effects.

As a result, they can also substitute one ligand in the complex formed after the addition.

These parameters have since been extended to other ligand types.

Such ligands are less basic and have small cone angles.

Its main use is as a ligand in metal complexes.

It is a popular ligand and building block for more complex structures.

The three ligands must be present simultaneously for reduction to occur.

Many related ligands can be made in this way.

There are five specific ligands that interact with this protein.

Secondly, a ligand is added to form a coordination complex.

The size of a ligand is indicated by its cone angle.

This type of complex is common when metals are in different ligand fields.

'You won't find better quality anywhere,' Ligand called after them.

The pyridine-2,6-diimine ligand can be easily reduced by one or two electrons.

They can also bind to various ligands for different biological purposes.

This trend can continue until only one ligand is left coordinated to the metal center.

Some atoms cannot form the maximum possible number of bonds a ligand could make.