Members of Paul Sullam's lab at UCSF provided the clinical perspective, members of Maofu Liao's lab at Harvard characterized the targeting
complex by electron microscopy, and members of Parastoo Azadi's lab at Georgia analyzed the sugar modifications.
Not exact matches
The special treatment alters the chemical composition of the
complex sandwich structure — thereby altering its electronic properties, as confirmed
by various methods including detailed
electron microscope investigations.
The first was a T - shaped structure which Mulliken called an «outer
complex», in which the chlorine molecule interacts only weakly with the
electrons of the carbon - carbon double bond to form a loose association held together
by electrostatic forces.
Images taken with an
electron microscope confirmed that not only was its DNA separate from the rest of the cell, it was enclosed
by a double membrane — just like the membrane envelope surrounding the nucleus of
complex cells.
Previously such studies could only be achieved
by X-ray crystallography, but using the
electron microscope will allow us to tackle protein
complexes which no one has been able to crystallise, and to do this under conditions which are much closer to those in the human body.»
Joel Moore, a theorist at the University of California, Berkeley, and his co-workers built on Kane's calculations to show that three - dimensional blocks of material would also display quantum effects, although the way
electrons moved along the surface would be more
complex than in the flat sheet used
by Kane.
It is assumed that a
complex exchange of energy, in which plasma waves are affected
by electrons and ions and vice versa, takes place here.
While the proton radiation belts are characterized
by stability, this is not the case for the
electron radiation belts that are characterized
by both
complex temporal and spatial variations.
The use of
electron - volt neutron spectroscopy in materials research is a growing area of neutron science, capitalizing upon the unique insights provided
by epithermal neutrons on the behaviour and properties of an increasing number of
complex materials.
A, Micro - compartment for linear PET (solid arrows):
electrons flow from photosystem II (PSII), through plastoqui - none (PQ) and the cytochrome b6f (Cytb6f)
complex to PSI, where they are donated to Fd and used
by FNR to reduce NADP +.
B and C Micro-compartments for cyclic PET (hashed arrows):
electrons are returned to the PET chain, either directly
by Fd (B), or
by NADPH, via the NAD (P) H dehydrogenase
complex (NDH)(C) generating a proton gradient with no net reductant.
Similar effects might be achieved
by altering the protein machinery of this
complex or others in the
electron transport chain.
The Deaconescu Laboratory focuses on structural studies
by X-ray crystallography, small - angle X-ray scattering and
electron microscopy of protein - protein and protein - nucleic acid
complexes, particularly those involved in DNA repair and transcriptional regulation.
A supramolecular assembly — a supermolecule — is an explicitly designed
complex of molecules held together
by noncovalent bonds — bonds that do not involve sharing
electrons.
Electrons in such charge - transfer
complexes are easy to excite to a higher energy level
by light.
Mitochondrial membrane ATP synthase (F (1) F (0) ATP synthase or
Complex V) produces ATP from ADP in the presence of a proton gradient across the membrane which is generated
by electron transport
complexes of the respiratory chain.
Using an integrative approach that combined
electron microscopy on the Env trimer
complex with PGT151 (led
by the Ward lab) with the structure of the PGT151 Fab
by x-ray crystallography (led
by the Wilson lab), the scientists were able to visualize the location of the PGT151 - series binding site on the Env trimer — which includes a spot on one gp41 protein with two associated sugars (glycans), a patch on the gp120 protein and even a piece of the adjacent gp41 within the trimer structure — «a very
complex epitope,» said Claudia Blattner, a research associate in the Wilson laboratory at TSRI and member of the IAVI Neutralizing Antibody Center who, along with graduate student Jeong Hyun Lee, was a first author of the second paper.
Electrons begin to build up because the person still has to breathe and we see electrons leaking specifically at complex I. For a while our body deals with this by mitochondri
Electrons begin to build up because the person still has to breathe and we see
electrons leaking specifically at complex I. For a while our body deals with this by mitochondri
electrons leaking specifically at
complex I. For a while our body deals with this
by mitochondrial death.
The nanoclusters then pass
electrons liberated
by the sun's energy into an iron - sulfur
complex which acts like a match - maker between the negatively charged
electron and a hydrogen proton in the surrounding water molecules.