(1) We observe a well-defined 'high' and 'low' FRET state for CPX bound to the post- and pre-fusion SNARE using two different FRET pairs with different R0 values (Stilbene/Bimane, R0 ∼27Å and Bimane/Oregon Green, R0 ∼38Å), and the FRET distances in these CPX SNARE complexes match very well with the predicted distance in the pre- and post-fusion crystal structures (Kümmel et al., 2011).
Functional limitation resulting from HO and other factors (such as muscle wasting and entrapment neuropathy) has been shown to be significant even 1 year after discharge from intensive care: ARDS survivors are only able to walk 66% of predicted distance in 6 minutes, and only 49% return to work in the first year [ 5].
One exception was the U---Ca distances where the complex with two Ca2+ ions in-plane predicted distances of 4.05 Å, much closer to the experimental 3.95 Å compared to the 3.68 Å of the out-of-plane complex.
On the cytoplasmic surface, there is less heterogeneity, but the predicted distances from the homology model are in 3 out of 4 cases examined significantly longer than distances measured by DEER.
To better understand the degree of functional limitation in this cohort of patients relative to the average population, a reference equation was applied to determine the predicted distance walked in six minutes adjusted for age, height, and weight.[ 41] Using this prediction equation, the patients walked distances on average 68% (± 16%) of age, height, and weight-matched peers.
During training step the minimum value of RTT is not observed, while it is during verification step, resulting in a short predicted distance.
The detailed model predicts quench distances in good agreement with numerical solutions for the stoichiometrics chosen herein.
We were able to predict perceived distances in a variety of circumstances from the probability distribution of physical distances.
Thus, while the aim of these studies has been to predict theoretical distances in order to minimize gene flow, the varying trial design and environmental conditions make it difficult to extrapolate this information from one region to another.
Furthermore, sufficiently-precise X-ray structures allow a particular computational method to be validated as far as accurately predicting C−C distances in the absence of an X-ray structure (assuming that the addition pattern can be discerned from spectroscopic data) or when an X-ray structure clearly shows the addition pattern but has relatively low precision.
We consider the predicted inundation distance in 2100 (∼ 9 km) for a range of [1, 2] m sea level rise (SLR) adding 1 km to consider the uncertainty in the estimation of the flooding distance.
