Supplemental Material: Quantifying structural controls on submarine channel architecture and kinematics

Figure S1: Location of cross sections through Channel Complex Five; Figure S2: Location of cross-sections taken through Channel Complex Six; Figure S3: (a) The final channel elements of channel complex five (ChC 5) and six (ChC 6) overlain on interval strain rates presented in Pizzi et al. (2020); Table S1: KS test values for channel complex five and six. Critical values based on the two sample sizes (structured (m) and unstructured (n) measurements) and Dmax values for channel complex width, thickness, aspect ratio, and complex-averaged stratigraphic mobility.

Supplemental Material: Quantifying structural controls on submarine channel architecture and kinematics

Figure S1: Location of cross sections through Channel Complex Five; Figure S2: Location of cross-sections taken through Channel Complex Six; Figure S3: (a) The final channel elements of channel complex five (ChC 5) and six (ChC 6) overlain on interval strain rates presented in Pizzi et al. (2020); Table S1: KS test values for channel complex five and six. Critical values based on the two sample sizes (structured (m) and unstructured (n) measurements) and Dmax values for channel complex width, thickness, aspect ratio, and complex-averaged stratigraphic mobility.

Utilization of Waste Wool Felt Architecture to Synthesize Self-supporting Electrode Materials for Efficient Energy Storage

Wool felt, as a kind of natural biomass material, was usually discarded directly after industrial application. However, the wool felt with overhead network and open-channel architecture can be utilized as...