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. 2022 Nov 14;51(23):9831–9852. doi: 10.1039/d2cs00727d

Selection of POPs containing heteroatoms.

Sample S total (m2 g−1) S micro/Stotal (%) V total (cm3 g−1) V micro/Vtotal (%) Heteroatom contenta (wt%) CO2 uptake (mmol g−1) CO2Qst (kJ mol−1) CO2/N2 selectivityd Ref.
C N F O S 273 (K) 298 (K) 273 (K)
1 CTF-1 746 0.62 87.1 11.4 3 1.41 27.5 20 35
2 CTF-1-600 1553 0.10 84.6 13.6 3.82 2.25 30.0 13 35
3 FCTF-1 662 0.94 63.3 12.0 23.8 4.67 3.21 35.0 31 35
4 FCTF-1-600 1535 0.49 82.2 15.4 5.53 3.41 32.0 19 35
5 F-DCBP-CTF-1 1574 0.51 0.34 59.7 11.3 4.2b 5.98 3.82 33.1 31e 38
6 CTF-3 1454 0.98 0 2.13 1.34 21.0 24.5 41
7 F12CTF-3 1558 1.32 0.44 5.5b 3.7b 6.58 4.33 24.5 32.4 41
8 O-CTF-3 1450 3.17 1.70 41
9 O-F12CTF-3 1822 5.59 3.04 41
10 O-CTF-2 1130 81.4 2.7 2.65 2.06 41
11 O-F16CTF-2 948 53.1 5.4 16.9 5.10 3.30 41
12 Tz-df-CTF600 2106 1.43 0.64 48.4 6.2 7.65 5.08 20.0 16.8 39
13 HAT-CTF-450/600 1090 32.8 9.4b 6.3 4.8 27.1 110 34
14 Isox-CTF-5-400 1683 0.70 53.6 7.4 6.0 4.92 2.86 29 83e 37
15 CTF-CSU38 491 0.44 0.24 58.8c 20.6c 15.7b 2.2 39.2 72.0 36
16 CICF-KCl/NaCl-500 590 0.94 64.1 14.1 5.9 4.04 35.9 47
17 CQN-1g 1870 0.68 0.93 63.5 24.5 7.16 4.57 40.6 42.7e 42
18 BTAP-1 750.9 0.86 69.8 4.9 20.9 3.26 1.78 31.7 40 24
19 BTAP-2 445.6 0.77 65.6 5.4 24.9 2.55 2.23 52 24
20 BTAP-3 419.9 0.79 65.7 5.1 24.3 1.58 1.41 33.8 62 24
21 BTLP-4 1011 0.53 64.1 7.3 16.7 4.3 2.7 28.7 41 50
22 BTLP-5 705 0.41 62.3 6.6 15.0 3.2 1.98 29.1 45 50
23 BOLP-4 698 0.54 71.7 8.2 16.3 3.1 2.0 33.6 79 50
24 BOLP-5 759 0.52 73.8 7.2 15.0 2.9 1.8 32.9 95 50
25 BILP-4 1135 0.65 67.1 14.0 5.3 3.6 28.7 79 48
26 BILP-5 599 0.36 72.7 12.7 2.9 2.0 28.8 95 48
27 Th-1 726 0.45 0.49 55.2 0.0 23.1 2.88 27 39 57
28 Py-1 437 0.38 0.37 55.9 10.9 0.8 2.71 36 117 57
29 Fu-1 514 0.36 0.42 60.6 0.0 0.3 2.21 28 50 57
30 HMC-1 855 0.30 60.7 5.8 27.2 5.8 34.0 72 58
31 HMC-2 425 0.19 59.9 5.1 27.7 6.6 60.0 70 58
32 HMC-3 566 0.16 60.5 5.9 28.0 7.1 52.0 23 58
33 Tp-POP 1.32 59
34 Tt-POP-1 258 0.31 54.1 16.2 26.1 0.75 0.29 50.12 30 59
35 Tt-POP-2 368 0.40 66.3 9.8 18.8 0.91 0.49 58.77 26 59
36 Tt-POP-3 974 0.62 76.2 6.4 12.0 0.78 0.45 54.23 25 59
37 TAP1 474 0.74 78.1b 11.4b 10.6b 2.2 1.4 35.6 94 60
38 TAP2 772 1.41 73.8b 12.4b 13.9b 3.2 2.3 37.2 112 60
39 TAP3 729 1.04 72.2b 13.7b 14.2b 3.4 2.3 36.1 114 60
40 PFPOP-1 570 0.67 0.32 0.6 68.2 0.0 2.8 1.2 26.9 43.7e 61
41 PFPOP-2 630 0.65 0.35 0.54 72.53 0.0 3.4 1.5 30.2 52.1e 61
42 PFPOP-3 530 0.66 0.30 0.53 68.09 1.3 3.9 1.7 32.5 56.5e 61
43 PMOP 1604 0.885 0.65 5.00 3.17 32.2 47.1 62
44 TBOSBL1 649 0.527 4.0 2.1 35.1 68 63
45 TBOSBL2 570 0.384 3.4 2.6 32.1 106 63
46 TBOSBL3 493 0.467 2.8 2.2 32.7 108 63
47 COP-190H-en 456 0.142 0.96 83.3 3.4 8.7 3.6 2.19 100 171e 64
48 COP-190H-deta 72 0.047 0.24 83.8 3.7 9.0 2.7 1.79 73 121e 64
49 COP-190H-CN 661 0.21 0.95 73.6 5.0 13.2 3.2 2.11 42 91e 64
50 COP-190H-SH 773 0.25 0.92 72.5 10.8 7.7 3.6 2.28 37 76e 64
a

Elemental analysis.

b

XPS analysis.

c

EDS analysis.

d

IAST (ideal adsorbed solution theory) calculation for the flue gas condition CO2/N2: 15/85 (v/v) at 273 K.

e

At 298 K.