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. 2023 Dec 10;14:7822. doi: 10.1038/s41467-023-43555-x

Table 2.

The finest subsets alleviate high-resolution amplitude decay, along with a comparison to their theoretical number of particle limit

Dataset A B C D E F G H
TRPA1 3.90 141.9 78.1 (63.8−) 198.5 147.3 (51.2−) 521 11,426 (21.9×) 43,585 (83.7×)
hemagglutinin 3.62 232.0 160.8 (71.2−) 226.9 146.4 (80.5−) 975 34,078 (35.6×) 130,000 (133.3×)
LAT1 3.11 132.6 96.0 (36.6−) 147.3 94.9 (52.4−) 6697 65,687 (9.8×) 250,712 (37.4×)
pfCRT 3.37 85.1 49.5 (35.6−) 235.8 66.8 (169.0−) 4212 4429 (1.01×) 16,905 (4.0×)
TSHR-Gs 2.96 92.9 61.7 (31.2−) 96.9 62.4 (34.5−) 9205 13,465 (1.46×) 41,054 (4.5×)
TRPM8 2.98 94.7 76.7 (18.0−) 110.1 82.2 (27.9−) 2200 13,789 (6.3×) 42,040 (19.1×)
apoferritin 1.81 70.5 58.0 (12.5−) 81.6 49.2 (32.4−) 74,530 80194 (1.08×) 382,391 (5.1×)
streptavidin 2.99 125.6 101.8 (23.8−) 90.4 69.3 (21.1−) 2152 7772 (3.6×) 23,991 (11.1×)

A Half-maps resolution of the CryoSieve-retained particles (Å); B B-factor reported by CryoSPARC auto-postprocessing obtained from all particles in the final stacks (Å2); C B-factor reported by CryoSPARC auto-postprocessing obtained from the CryoSieve-retained particles with temperature decrease (compared with all particles) in brackets (Å2); D Rosenthal’s B-factor obtained from all particles in the final stacks (Å2); E Rosenthal’s B-factor from the CryoSieve-retained particles with temperature decrease (compared with all particles) in brackets (Å2); F theoretical number of particles limit at B = 50 Å2; G number of the CryoSieve-retained particles with folds of theoretical limit in brackets.; H number of particles in final stacks with folds of theoretical limit in brackets. Three datasets (pfCRT, TSHR-Gs and apoferritin) were emphasized by bold font as the number of particle images in the finest subset approaches the theoretical limit.