Membrane proteins are ubiquitous in biology and are key targets for therapeutic development. Despite this, our structural understanding has lagged behind that of their soluble counterparts. This review provides an overview of this important field, focusing in particular on the recent resurgence of electron microscopy (EM) and the increasing role it has to play in the structural studies of membrane proteins, and illustrating this through several case studies. In addition we examine some of the challenges remaining in structural determination, and what steps are underway to enhance our knowledge of these enigmatic proteins
AbstractStructural information on membrane proteins is sparse, yet they represent an important class...
Electron crystallography is a powerful technique for the study of membrane protein structure and fun...
Structural information on membrane proteins is sparse, yet they represent an important class of prot...
In the past few years, significant technological breakthroughs in single particle cryo-electron micr...
AbstractStructural information on membrane proteins is sparse, yet they represent an important class...
Structural information on membrane proteins is sparse, yet they represent an important class of prot...
Structural information on membrane proteins is sparse, yet they represent an important class of prot...
Structural information on membrane proteins is sparse, yet they represent an important class of prot...
Many biological processes take place in or near cell membranes. In order to understand such processe...
It is an exciting period in membrane protein structural biology with a number of medically important...
Single-particle electron microscopy (EM) provides the great advantage that protein structure can be ...
Electron microscopy (EM) is at the highest-resolution limit of a spectrum of complementary morpholo...
Electron microscopy (EM) is at the highest-resolution limit of a spectrum of complementary morpholo...
Electron microscopy (EM) is at the highest-resolution limit of a spectrum of complementary morpholo...
The biological importance of membrane proteins has been recognized worldwide for many years, but his...
AbstractStructural information on membrane proteins is sparse, yet they represent an important class...
Electron crystallography is a powerful technique for the study of membrane protein structure and fun...
Structural information on membrane proteins is sparse, yet they represent an important class of prot...
In the past few years, significant technological breakthroughs in single particle cryo-electron micr...
AbstractStructural information on membrane proteins is sparse, yet they represent an important class...
Structural information on membrane proteins is sparse, yet they represent an important class of prot...
Structural information on membrane proteins is sparse, yet they represent an important class of prot...
Structural information on membrane proteins is sparse, yet they represent an important class of prot...
Many biological processes take place in or near cell membranes. In order to understand such processe...
It is an exciting period in membrane protein structural biology with a number of medically important...
Single-particle electron microscopy (EM) provides the great advantage that protein structure can be ...
Electron microscopy (EM) is at the highest-resolution limit of a spectrum of complementary morpholo...
Electron microscopy (EM) is at the highest-resolution limit of a spectrum of complementary morpholo...
Electron microscopy (EM) is at the highest-resolution limit of a spectrum of complementary morpholo...
The biological importance of membrane proteins has been recognized worldwide for many years, but his...
AbstractStructural information on membrane proteins is sparse, yet they represent an important class...
Electron crystallography is a powerful technique for the study of membrane protein structure and fun...
Structural information on membrane proteins is sparse, yet they represent an important class of prot...