The MBR Book: Principles and Applications of Membrane

150 The MBR Book
Table 3.20 Summary of pilot plant SAD data, four common MBR technologies
Technology J (LMH) K (LMH/bar) SAD m SAD p Source
Kubota 8.3–12.5 500–500 0.75 60–90 DHV
32.5–42 a 350 a 0.75 a 60–90 a DHV a
25 250 0.6 24 MWH
26 650 b 0.67–1.2 28–50 PUB
18–25 200–500 0.67–1.2 28–50 PUB
15–16 261–320 0.7–0.98 19–79 Trento c
9.5 200 1.5 88 Eawag
Mitsubishi Rayon 5–8 200 0.28–0.38 48–56 DHV
20 a 140–150 a 0.28–0.38 a 12–14 a DHV a
20–25 140 0.9–1.14 45 MWH
16–24 66 b 0.38–0.58 16–24 PUB
4.8 90 0.37 38 Eawag
Zenon 20 200–250 0.54 27 DHV
35 a 200–250 a 0.54 a 15 a DHV a
37.2 270 0.52 14 MWH
6.2–29.6 124 b 0.25–0.37 20–30 PUB
16–31 61–120 0.33–0.38 12–27 Trento c
10 200 0.54 28 Eawag
Memcor 20–40 150 0.39 10–20 MWH
21–22 182–270 0.2 17–22 Trento
a Peak loading conditions; b initial permeability; c range refers to mean optimum.
Table 3.21 Summary of full-scale plant specific aeration demand data
Technology Capacity Flux K SAD m 2 , SADp 2 MLSS
MLD LMH LMH/bar Nm/h – g/L
FS
Kubota 1.9 20 350 0.75 32 12–18
13 33 330 1.06 32 8–12
4.3 25 680 0.56 23 na
Brightwater 1.2 27 150 1.28 47 12–15
Toray 0.53 25 208 0.54 22 6–18
1.1,i 21.6 1500 0.4 19 22
Huber 0.11 24 250 0.35 22 ns
Colloide 0.29 25 62.5 0.5 20 ns
HF
Zenon 2 18 95 1 56 15
48* 18 144 0.29 16 8–10
0.15*,i 12 71 0.65 54 10–15
50* 25 175 0.4 17 12
Mitsubishi Rayon 0.38 10 30 0.65 65 12
Memcor 0.61 16 150 0.18 11 12
Asahi-kasei 0.9, i 16 80 0.24 15 8
KMS Puron 0.63 25 160 0.25 10 ns
*Intermittent aeration.
i – Industrial effluent feedwater.
na – Not applicable.
ns – Not specified.