NMR Fluorescense for Dynamic and Protein Folding / Aggregation Studies part 4

submitted by: icamvid

Presented at the I2CAM/FAPERJ Spring School, 2008 in Rio de Janeiro, Brazil
Jerson L. Silva (0:00)

Competence in B. subtilis, part 2; NMR Fluorescense for Dynamic and Protein Folding / Aggregation Studies part 3

submitted by: icamvid

Presented at the I2CAM/FAPERJ Spring School, 2008 in Rio de Janeiro, Brazil
Daniel Schultz (0:00)
Jerson L. Silva (50:20)

NMR Fluorescence for Dynamic and Protein Folding / Aggregation Studies, part 2

submitted by: icamvid

Presented at the I2CAM/FAPERJ Spring School, 2008 in Rio de Janeiro, Brazil
Jerson L. Silva (0:00)

NMR Fluorescence for Dynamic and Protein Folding / Aggregation Studies, part 1

submitted by: icamvid

Presented at the I2CAM/FAPERJ Spring School, 2008 in Rio de Janeiro, Brazil
Jerson L. Silva (11:30)

Transfected Lysate (Denatured)

submitted by: abnova

Abnova - Transfected lysate is useful as a positive control in Western Blot. The full-length protein construct is expressed in HEK293T cells and prepared as ready-to-use, denatured lysate in 1x Sample Buffer. For more videos, visit Abnova!

Transfected Lysate (Native)

submitted by: abnova

Abnova - Transfected lysate is useful as a positive control in Western Blot. The full-length protein construct is expressed in HEK293T cells and prepared as ready-to-use, native lysate in modified RIPA Buffer. For more videos, visit Abnova!

Bacterial Inclusion Bodies Contain Amyloid-Like Structure

linked profile(s): Lei Wang
submitted by: apryl
Protein aggregation is a process in which identical proteins self-associate into imperfectly ordered macroscopic entities. Such aggregates are generally classified as amorphous, lacking any long-range order, or highly ordered fibrils. Protein fibrils can be composed of native globular molecules, such as the hemoglobin molecules in sickle-cell fibrils, or can be reorganized β-sheet–rich aggregates, termed amyloid-like fibrils. Amyloid fibrils are associated with several...
Authors: David Eisenberg, Samir K Maji, Roland Riek, Michael R Sawaya, Lei Wang