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2 0 1 2 - 8 9
2012. 12
1 3
2 19
3 61
4 79
5 83
.
()
:
()
:
()
:
()
()
()
()
()
()
()
- i -
1
1
1.
8
Geosmin , Microcystin 6 Geosmin 50~194 ppt (2012.8.14 ), 2012.8.15 38~97
ppt, 2012.8.13 6,558 /mL(2012.8.13), Geosmin
292 ppt
Region/countryNatural
lakes
Reservoirs, rivers
and irrigation
systems
Estuaries, agoons
and closed areas
Marine coastal
waters
Africa
Central
North
South
+ ++
+
++
+
++ +
Central America
Caribbean
Guatemala/Nicaragua
Mexico
+
+
+
+
++
+
North America
Canada
USA
++
++
+
++
+
++ +
South America
Argentina/Chile
Brazil
Columbia/Ecuador/Peru
Venezuela/Suriname
+
+
+
+
++
++
++
+
+
++
+
++
+
+
+
Asia
China
India/Pakistan
Indochina
Indonesia/Philippines
Japan
++
+
+
++
++
+
++
+
+
+
+
+
++ +
- ii -
Region/countryNatural
lakes
Reservoirs, rivers
and irrigation
systems
Estuaries, agoons
and closed areas
Marine coastal
waters
Oceania
Australia/New Zealand ++ ++ ++ +
Europe (EU countries)
Belgium
Denmark
France
F. Germany, Fed. Rep.
Greece
Ireland
Italy
Netherlands
Portugal
Spain
UK
++
++
++
++
++
+
++
++
+
+
++
++
++
++
++
+
+
+
+
++
+
+
+
++
+
+
++
Europe (other countries)
Austria
Former Czechoslovakia
Filand
Former German Dem. Rep.
Hungary
Norway
Poland
Romania
Sweden
Switzerland
Former USSR
Former Yugoslavia
++
++
+
+
++
++
++
++
+
+
++
+
+
+
++
+
+
++
+
+
+
+
+
+
++
+
+
+ Identified problems, ++ Serious problems, Source Earthwatch, 1992
- Microcystins: ,
- Geosmin 2-MIB:
2.
- iii -
-
-
-
- Algae Mat
,
- , ,
-
- , . Humic
Fulvic THM
- pH ,
- AOC
-
- iv -
-
2
- ,
-
-
- Clay , Clay
-
- , , ,
*
* Telemetry ( Remote sensing)
-
-
-
* DAF
* ,
* ( O&M)
* ( )
* ( )
*
*
- (2-MIB, Geosmin)
- ()
-
- +
-
-
-
- v -
3
, ,
.
2 -a 15mg/m3
500cells/ml
4
( )
1
(, ) ()
- vi -
2 -a 25mg/m3
5,000cells/ml
4
( )
2 (-a, , , )
(, )
()
2 -a 100mg/m3
106cells/ml
4
( )
2 (-a, , , )
,
(, )
()
2 -a 15mg/m3
500cells/ml
4
( )
()
- vii -
2
1
.
Clay (diatomite) (Phoslock) (algicide) : , 1 DAF .
microcystin PCR, ELISA, HPLC
:
- 2010 GOCI
- (KIOST)
(GOCI)
- Lyngbya majscula Landsat 7 ETM+
Microcytin ImmunoAssay Kit- RIA
- ELISA
- ELISA
- viii -
2 ( )
,
,
()
(TiO2) ( , 1999;
, 2000)
, ,
(, 1988)
TOC, UV-254, ( , 1999)
, , (ABS) ( , 2002)
,
(AQfloc) ( , 2001)
( , 2005)
(2-MIB,
Geosmin)
,
Pilot plant ( , 1996)
, / Filter absorber ( , 2004)
,
( , 1996)
TiO2/UV pH Geosmin ( , 1999)
pH , ( , 2003)
( , 2006)
(
)
,
(TiO2) ( , 2002)
,
,
(LD50) ( , 1999)
-LR ( , 2005)
( , 2003)
- ix -
- , : : DAF (Dissolved Air
Flotation)
-
(Interception Impaction) ( (Head loss))
- (Membrane)
ANABAENA MICROCYSTIS Fouling , DAF
-
Hydroxyl radical Geosmin MIB -
Geosmin 2-MIB Hepatotoxins (Microcystins) , +
-
- x -
Geosmin 2MIB ,
- Microstrainer
,
-
3 (Geosmin, 2-MIB)
Geosmin, 2-MIB(2-Methylisoborneol), -Cyclocitral, 3-Methyl-1-Butanol, TCA2,3,6-Trichloroanisole), IPMP (2-Isopropyl-3-Methoxy
Prazine), IBMP (2-Isobutyl-3-Methyoxy Pyrazine), Sesquiterpenes
(2001) - Geosmin 2-MIB
- /
- Geosmin 2-MIB
- 2-MIB Geosmin
4 ()
Microcystin-LR 1-2 ppm
- xi -
Microcystin-LR (DOC: Lake yhnjrvi = 13.1 ppm, Lake Greifensee = 3.6 ppm) (Onstad et al., 2007)
[ 3] Microcystin-RR 1.1, 6
[ 2-5] Microcystin ( , 2003)
Unit process
Concentration of Dissolved Microcystin
(g m-RR eq./L)
Aug. 26 Sep. 11 Sept. 18 Sept. 25
Raw water 0.014 0.01 0.025 0.028
Pre-chlorination 0.03 - - >0.031
Pre-ozonation ND 0.025 0.02 0.005
Coagulation/Sedimentation ND 0.02 0.01 0.011
Filtration ND 0.02 0.01 0.011
Post-chlorination ND ND ND ND
5
1.
(algaecide) Dissolved Air Flotation (DAF)
- xii -
2. pH
3.
4.
, , , , , , /DAF
: (PAC)
6
- xiii -
3
1
- , , 100-500 Da
EDCs
- (RO) (NF) EDCs PPCPs
- GAC EDCs
- kinetic ,
, , carbon , NOM
(Biological and chemical conversion)- ,
(AOPs) EDCs PPCPs
- (supercritical fluid extraction), ,
EDCs
E1 E2
(pH 7, O3 = 1 mg/L, E1 & E2 = 2 mg/L) ( , 2006)
- xiv -
(ng/L, n=20) (Snyder, 2009)
(3.5 mg/L dose)
(Snyder, 2009)
UV (40 mJ/cm2)
(Snyder, 2009)
(2.5 mg/L dose)
(Snyder, 2009)
- xv -
2
- NF 1990
- 2
- , 1
4 Geosmin 2-MIB
(Dixon , 2011)
- xvi -
-
(2-MIB,
Geosmin)
C. Robert Reiss, James S.
Tayler, Christophe Robert
Surface water treatment using nanofiltration - pilot
testing results and design considerations1999
Anand J. Mody
Feasibility of using nanofiltration as a polishing
process for removal of cyanobacterial exudates from
treated surface water
2004
Mike B. Dixon,
Chorlotte Falconet,
Lionel Ho,
Christopher W. K. Chow,
Brian K. ONeill,
Gayle Newcombe
Removal of cyanobacterial metabolites by nanofiltration
from two treated waters2011
(Microcystin)
M. R. Simpson,
B. W. MacLeod
An integrated approach to algal by-products including
bench scale evaluation of nanofiltration for microcystin
removal
2002
D. P. Smith,
V. Falls,
A. D. Levine,
B. W. Mac Leod,
M. Simpson,
T. L. Champlin
Nanofiltration to augment conventional treatment for
removal of algal toxins, taste and odor compounds,
and natural organic matter
2002
Margarida Ribau Teixeira,
Maria Joao RosaMicrocystins removal by nanofiltration membrane 2005
A. J. Gijsbertsen-Abrahamse,
W. Schmidt,
I. Chorus,
S. G. J. Heijman
Removal of cyanotoxins by ultrafiltration and
nanofiltration2006
Margarida Ribau Teixeira,
Maria Joao Rosa
Neurotoxin and hepatotoxic cyanotoxins removal by
nanofiltration2006
M. B. Dixon, C. Falconet,
L. Ho, C. W. K. Chow,
B. K. ONeill,
G. Newcombe
Nanofiltration for the removal of algal metabolites and
the effects of fouling2010
- xvii -
-
20kHz .
/ (cavity)
,
. .
- 5000K, 1000atm
- 500 m/s
(micro-jet) .
- xviii -
[ 3-2]
(: , : , : )
- xix -
4
-
-
-
-
- RFP
- R&D
- xx -
1 3
1 3
2 12
3 13
2 19
1 19
2 ( ) 30
3 (Geosmin, 2-MIB) 43
4 () 46
5 49
6 56
3 61
1 61
2 67
4 79
5 83
- xxi -
Perceived eutrophication problem in different continents and countries 4
12
15
31 DAF+PAC 35
Geosmin, 2-MIB , OH 46
Microcystin-LR , OH 47
Microcystin ( , 2003) 49
57
- xxii -
[ 1-1] 3
[ 1-2] Anabaena 5
[ 1-3] Microcystis 5
[ 1-4] 7
[ 1-5] Microcystins 7
[ 1-6] 10
[ 1-7] 11
[ 1-8] . 15
[ 2-1] 24
[ 2-2] 25
[ 2-3] 25
[ 2-4] 26
[ 2-5] 31
[ 2-6] Typical DAF system 33
[ 2-7] 33
[ 2-8] (Halosource) 33
[ 2-9] Mechanism 36
[ 2-10] Diffusion, Interception, Sedimentation 37
[ 2-11] Mechanism 38
[ 2-12] Spectrum 39
[ 2-13] Glycine Valine (-NH2) functional group , 39
Organic Chloramine
[ 2-14] Macro, Meso, Micro Pores 41
[ 2-15] Geosmin 2-MIB 41
[ 2-16] Fraction of odour compound remaining as a function of time 41
[ 2-17] Geosmin ( , 2004) 45
- xxiii -
[ 2-18] Microcystin-LR 47
[ 2-19] Microcystin-LR 48
[ 2-20] 50
[ 2-21] 50
[ 3-1] 75
[ 3-2] 76
1
1
2
3
1
3
1
1
1.
8
. Geosmin , Microcystin
. 20%
. 2012.8.6 Geosmin 590 ppt
. 2012.8.9 Anabaena, Microcystis
(Microcystin-LR ) . 2012.8.17
-a 14.3~34.2 mg/m3, 1,180~4,470 /mL (2012.8.8 )
. -a 15 mg/m3, 500 /mL
. 6 50~194 ppt (2012.8.14 ) ,
2012.8.15 38~97 ppt . 2012.8.13 6,558
/mL(2012.8.13), 292 ppt .
[ 1-1]
4
Perceived eutrophication problem in different continents and countries
Region/countryNatural
lakes
Reservoirs, rivers
and irrigation
systems
Estuaries, agoons
and closed areas
Marine coastal
waters
Africa
Central
North
South
+ ++
+
++
+
++ +
Central America
Caribbean
Guatemala/Nicaragua
Mexico
+
+
+
+
++
+
North America
Canada
USA
++
++
+
++
+
++ +
South America
Argentina/Chile
Brazil
Columbia/Ecuador/Peru
Venezuela/Suriname
+
+
+
+
++
++
++
+
+
++
+
++
+
+
+
Asia
China
India/Pakistan
Indochina
Indonesia/Philippines
Japan
++
+
+
++
++
+
++
+
+
+
+
+
++ +
Oceania
Australia/New Zealand ++ ++ ++ +
Europe (EU countries)
Belgium
Denmark
France
F. Germany, Fed. Rep.
Greece
Ireland
Italy
Netherlands
Portugal
Spain
UK
++
++
++
++
++
+
++
++
+
+
++
++
++
++
++
+
+
+
+
++
+
+
+
++
+
+
++
1
5
Perceived eutrophication problem in different continents and countries()
Region/countryNatural
lakes
Reservoirs, rivers
and irrigation
systems
Estuaries, agoons
and closed areas
Marine coastal
waters
Europe (other countries)
Austria
Former Czechoslovakia
Filand
Former German Dem. Rep.
Hungary
Norway
Poland
Romania
Sweden
Switzerland
Former USSR
Former Yugoslavia
++
++
+
+
++
++
++
++
+
+
++
+
+
+
++
+
+
++
+
+
+
+
+
+
++
+
+
+ Identified problems, ++ Serious problems, Source Earthwatch, 1992
Anabaeda Filamentous Cyanobacteria . Mosquito fern
.
, Microcystins . Geosmin
2-MIB .
[ 1-2] Anabaena [ 1-3] Microcystis
6
Mycrocystis Cyanobacteria,
Neurotoxins hepatotoxins . Mycrocystis
1996 (Caruaru) 50 .
. .
Microcystin-LR WHO guideline 1 g/L. Microcystins
, 0.5mg Cl2/L 30 pH < 8
100% 1). Microcystins , //
59~97% .2) Microcystin 1931 Ohio
River . Harare(Zimbabwe)
. 1996 55 ( )
. Cynobacteria
. Mycrocystin WHO Guideline
. Tolerable Daily Intake (TDI) level (WHO) 0.04 g/kg/d
. WHO MICROCYSTIN-LR 1 g/L (ppb).
5~10 mg/kg body .
MICROCYSTIN 1 g/L~100 mg/L 3). 20
g of Microcystin-LR per gram of supplement .
Anabaena (Baker and
Humpage, 1994; Codd, 2000). Anabaena anatoxin-a, anatoxin-a(s), (paralytic
shellfish poisoning, PSP) (Rapala and Sivonen, 1998). Anabaena
heterocyst()
. ,
(Kim and Lee, 1996; Lee et al., 1998; Kim et al., 1999).
, ,
3 . 5ppt
. (Earthy Taste)
1) Destruction of cyanobacterial peptide hepatotoxins by chlorine and chloramine, Water Research, Volume 28, Issue 6, June
1994, Pages 1297-1303
2) Endotoxins associated with cyanobacteria and their removal during drinking water treatment, Water Research, Volume 36,
Issue 10, May 2002, Pages 2627-2635
3) http://ntp.niehs.nih.gov/ntp/htdocs/chem_background/exsumpdf/microcystin.pdf
1
7
. Cyanobacteria (blue-green algae) Actinobacteria ( Streptomyces) (Algae)
. Geopsmin , (Algae)
.
[ 1-4] [ 1-5] Microcystins
2.
.
- - - - Algae Mat
,
- , ,
- - , . Humic
Fulvic THM
- pH , - AOC
8
.
EOM (Extracellular Organic Matter)
7~60% (Fogg. 1996)
EOM EOM
pH floc
.
. , ,
. pH Alum
.
, flotation
.
.
2~3
5~6 .
, 10
~20 .
1
9
(Konno, 1993)
2~3 5~6
10~20
,
Geosmin 2-MIB .
, ,
.
.
.
((Fe) (Mn) )
. (Fe)(Mn)
.
(Fe)(Mn) , .
, (Fe)(Mn) .
, (slime) , .
, ,
10
, ,
, .
, ,
.
[ 1-6, 1-7] AWWA Malcolm & Pirnie
. ,
. ,
, .
Br- (BrO3-)
, .
. .
.
.
. ,
.
[ 1-6] 4)
4) AwwaRF Project #3111 "Strategies for Controlling and Mitigating Algal Growth within Water Treatment Plants". (Malcolm
Pirnie, Inc.)
1
11
[ 1-6]
. .
. ,
, .
[ 1-7] 5)
- 2-MIB, geosmin, microcystin
.
- , ,
.
5) AwwaRF Project #3111 "Strategies for Controlling and Mitigating Algal Growth within Water Treatment Plants". (Malcolm
Pirnie, Inc.)
12
2
, ,
.
.
- ,
-
-
- Clay , Clay
-
- , , ,
*
* Telemetry ( Remote sensing)
-
-
-
* DAF
* ,
* ( O&M)
* ( )
* ( )
*
*
- (2-MIB, Geosmin)
- ()
-
-
-
-
-
1
13
3
1.
.
, , , , ,
, LG, Water Journal,
.
2.
- , m m . ,
. 2002
12 ()
,
, , 3
, , 5, 5
. 2050
.
- 16 2030 , ,
.
- 46 A1, A2, A3 3
. A1
12 . A2 , , ( :
+ + + +) 23
. A3 , ,
14
3 . , .
,
20m 1 .
3.
1996 2011 , , ,
, ,
. ,
.
, ,
.
-
.
- WHO
microcystin 1 microcystin-LR/L Microcystis
5,000 cells/ml 10 500 cells/ml
(Chorus and Bartram, 1990; Falconer et al., 1994).
21 ()
, [ 1-8] .
1
15
[ 1-8] .
- .
2 -a 15mg/m3
500cells/ml
4
( )
1
(, ) ()
16
()
2 -a 25mg/m3
5,000cells/ml
4
( )
2 (-a, , , )
(, )
()
2 -a 100mg/m3
106cells/ml
4
( )
2 (-a, , , )
,
(, )
()
2 -a 15mg/m3
500cells/ml
4
( )
()
2
1
2
3
2
19
2
1
1.
, ,
, ,
clay, , , ,
- Clay Clay ,
Clay clay clay
clay
clay clay
(, 2001)
- (diatomite) 2008 75% harmful algal blooms (HABs)
EOM
(Chun-De Wu, 2011)
20
- Clay
(, 1997)
- pH
(, 2000)
- (Phoslock) De Ploeg
(Miquel
Lrling, 2011)- (algicide)
,
2
2
21
Tohoku Microcystis aeruginosa L-lysine malonic acid (Kaya et al. 2002)
Oxford /
(Newman & Barret, 1993)
- , ,
1
-
- () 2
DAF
- ()
,
.
.
.
- DAF , , .
() ()
, 50~100 .
22
, ,
,
,
.
- , (310) , micro-agitation
,
,
.
(PAC)
.
- 5~10 , , ,
,
, .
2.
.
MicrocystisAnabaenaAphanizomenonOscillatoria
,
,
,
synedraAsterionellaCyclotellaMelosira
Melosilra
,
ClosteriumCacuiculatePediastriumScenedesmusBortyococcus
2
23
Eugleoids
TrachelomonasEuglena
Euglena
PeridiniumGymnodinium
,
Uroglena
-
Anabaena Aphanizomenon Heterocyst
seed
Polyphosphate body (Okino, 1973)
pH m
(Lampert, 1981)
.
, , , 4
24
718 1608 cell/ml 81 3943 cell/ml 2
-a 17.5 mg/m3 39.8 mg/m3 2
(anabaena)
, ,
- , ,
microcystin PCR, ELISA, HPLC
.
- Lugol's solution
,
. ( 3)
4
,
.
[ 2-1]
), ) a .
2
25
[ 2-2]
- ()
(, class)
[ 2-3]
26
[ 2-4]
6
- () (AOA fluorometer) 4 phytoplankton
a
AOA a
a - (1)
2008 2010 GOCI
GOCI GOCI 2011 2012
GOCI 555, 745, 865nm
660, 680nm
2
27
Index of floating Green Algae for GOCI (IGAG) NDVI, EVI
2011 2012
- (2)
(KIOST) (GOCI)
- (3) 2007 1997 Lyngbya majscula
,
Landsat 7 ETM+ GPS point boat based - (4)
Baltic Sea
Hyperspectral bloom high revisit
times
ALI, Landsat MODIS MERIS 6 7 band 640nm
28
phycocyanin
- (1) GIST
/
- (2)
algae bloom
Water Research in-vivo fluoroscopy(IVF) calibration , , chlorophyll-a
phycocyanin
Chlorophyll-a IVF
Chlorophy11-a,
- 1998 , , ,
.
- -a , , , microcystin
2
29
(Park et
al., 2007).
- -a
.
.
.
- , ,
.
- , ,
. ( )
.
- Microcystins .
,
.
- ,
sensor .
- ,
.
Microcytin ImmunoAssay Kit
- RIA RIA (tritium) microcystin-LR ,
30
microcystins microcystin-
.
microcystin microcystin
.
- ELISA plate Horseradish peroxidase(HRP) microcystin
.
- ELISA microcystin-LR poly L-lysine plate
, HRP .
3 Microcystin immunoassay kit Millipore() , Satoshi Nagata Monoclonal
Wako() kit
.
(), () microcystin microcystin
sensor .
-a sensing
,
.
2 ( )
, , /, , , , ,
. , ,
. (Algae)
. 4 ~ 100 um .
/, , .
Geosmin, 2-MIB, Microcystins, Protein (Amino Acids) .
2
31
/, , , /
.
[ 2-5]
- , .
,
, ()
(TiO2) ( , 1999;
, 2000)
, ,
(, 1988)
TOC, UV-254, ( , 1999)
, , (ABS) ( , 2002)
,
(AQfloc) ( , 2001)
( , 2005)
(2-MIB,
Geosmin)
,
Pilot plant ( , 1996)
, / Filter absorber ( , 2004)
32
()
(2-MIB,
Geosmin)
,
( , 1996)
TiO2/UV pH Geosmin ( , 1999)
pH ,
( , 2003)
( , 2006)
(
)
,
(TiO2) ( , 2002)
,
,
(LD50) ( , 1999)
-LR ( , 2005)
( , 2003)
, ,
.
,
. ,
, , .
DAF (Dissolved Air Flotation) ,
. [ 2-6] DAF . DAF
, .
. [ 2-7]
. [ 2-8]
.
,
. ,
.
2
33
[ 2-6] Typical DAF system
[ 2-7]
[ 2-8] (Halosource)
a) Algae non-treated b) Algae Chitosan treated
c) Algae non-treated + sand filtered d) Algae Chitosan treated + sand filtered
(DAF : Dissolved Air Flotation)
. 1970
2012 1,100,00ton/day
Croton .
34
1.
DAF system .
. ,
Floc . DAF
. Water Research Centre bench scale pilot plant
DAF system , .
2.
.
,
. DAF
. DAF 1987 2007
. DAF 90~99% ,
2
35
60~90% . NOM
. 1 DAF
(PAC) Anabaena, Microcystin, 2-MIB, Geosmin
. PAC
2-MIB, Geosmin 92%, 98% .
Without PAC With PACa
Anabaena 96% 94%
Microcystin 96% 95%
2-MIB 2% 92%
Geosmin 5% 98%
DAF+PAC
. 1 : Chingford South Plant
DAF 1970 Chingford South Plant 2005
41,700 ton/day DAF , a 14~23 g/L
49~90 g/L .
. 2 : Winnipeg
Winnipeg DAF 400,000 ton/day CH2M Hill
2010 . DAF
, 666,000 cells/mL
DOC . DAF++GAC+UV ,
.
. 3 : Haworth
Haworth 2009 760,000ton/day DAF
, TOC . 300~30,000 cells/mL
, pH 7~9
DAF .
36
3.
DAF system 30 (2-4) ,
(conventional gravity settling system) , ,
, , .
.
, NOM TOC
, THMFP . DAF
,
.
4.
.
, [ 2-9] , Diffusion, Interception, Impaction()
. ANABAENA 4~50 m , MICROCYSTIS 50 m
. [ 2-10] Interception Impaction
() . .
(Head loss) , . 24 ~ 36
8 hr .
.
[ 2-9] Mechanism
2
37
[ 2-10] Diffusion, Interception, Sedimentation
.
, Synedra, Meiosira. Achnanthes,
Asterionella. Fragilaria , Synedra
.
. (, ), (
, , )
. 15~25cm
.
,
. , .
20cm
4~10 . ,
( 0.99mm 1.734) 2~2.5cm
, 3,
38
( 25cm ) 70%
. ,
, ,
.
Roughing filter
Roughing filer Synedra
. Synedra s.p.
, Roughing filter
.
(Membrane)
.
Membrane
. 0.01 m ,
99% , .
,
.
ANABAENA MICROCYSTIS [
2-11. 2-12].
. AOM (Algal-derived Organic Matter),
Fouling , .
, DAF
.
[ 2-11] Mechanism
2
39
[ 2-12] Spectrum
Alage AOM(Algal-drived Organic Matter)
. Geosmin 2-MIB, Neurotoxins Hepatotoxins
, Protein . AOM
, , . AOM
Dissolved Organic Nitrogen (DON)
. DON(Dissolved Organic Nitrogen)
Organic Chloramines . DPD
.
[ 2-13] Glycine Valine (-NH2) functional group ,
Organic Chloramine
40
Chloroform DBP ,
Mutagen . DON Fouling
.
Hydroxyl radical Geosmin MIB .
pH 8 H2O2 AOP (Advanced Oxidation Process)
. OZONE + BAC
. EDCs (Endocrine
Disruptor Chemical) PPCPs (Pharmaceuticals and Personal Care Products) .
Algae , AOC(Assimilable
Organic Carbon) . AOM
.
. THMFP 10% , HAAs .
Microcystins . O3
OH .
.
.
. [ 2-14] PAC() GAC() .
BAC (Biological Activated Carbon) .
Geosmin 2-MIB . Hepatotoxins (Microcystins)
(PAC 50 mg/L ), + .6)
80% Hepatotoxins .7) Hepatotoxins
. ,
. [ 2-15, 16] Geosmin
, 2-MIB .
6) The effect of water treatment processes on the removal of hepatotoxins fromMicrocystis andOscillatoria cyanobacteria: A
laboratory study, Water Research Volume 23, Issue 8, August 1989, Pages 979-984
7) Adsorption of microcystin-LR by activatedcarbon and removal in full scale water treatment, Water Research Volume 30,
Issue 6, June 1996, Pages 1411-1422
2
41
[ 2-14] Macro, Meso, Micro Pores
[ 2-15] Geosmin 2-MIB
[ 2-16] Fraction of odour compound remaining as a function of time
42
.
Geosmin 2MIB ,
. Melosira, Synedra . Microcystis
, .
,
.
,
.
. ,
, .
.
,
, .
. , 0.1 /L
.
5. Microstrainer
. Microstrainer
Microstainer ,
. 1945
,
. Microstainer 3m, 3m
35 . 5 3 ,
. 1
1
2
43
. ,
. , Fragilaria, Asterionella 95% , Synedre 80%
, ( ) .
, ,
,
. .
.
.
, .
.
,
. Microstainer
Microcystis ,
.
3 (Geosmin, 2-MIB)
2
.
,
.
.
90%
.
44
1960 ,
, 30
.
1986
, 1988
. .
.
.
Geosmin, 2-MIB(2-Methylisoborneol),
-Cyclocitral, 3-Methyl-1-Butanol, TCA2,3,6-Trichloroanisole), IPMP (2-Isopropyl-3-Methoxy
Prazine), IBMP (2-Isobutyl-3-Methyoxy Pyrazine), Sesquiterpenes .
Geosmin 2-MIB actinomycetes cyanobacteria
,
. ng/L
( 4 - 20 ng/L) ,
.
(2001) Geosmin 2-MIB
Pilot Scale . /
/ , ,
/ .
Geosmin 2-MIB
2 ppm 40% .
10 ppm 40-55% .
(, 2001) 2-MIB Geosmin
. pH
.
.
2
45
( , 2004) ([ 1]), Geosmin
51-60%, 2-MIB 34-57% . , 3 Geosmin GAC
O3+GAC 100% , 25000Bed volume GAC
10ng/L, O3+GAC 5ng/L . Geosmin GAC
GAC .
[ 2-17] Geosmin ( , 2004)
Geosmin 2-MIB
. Peter and von Gunten (2007) Geosmin
2-MIB OH ([ 1]).
Geosmin 2-MIB 0.10, 0.35 M-1s-1
2 ppm
(99% ) 103 M-1s-1 .
Peter and von Gunten (2007) Geosmin 2-MIB
Rct .
1-2 ppm 59-86% .
[ 2-3] OH , Geosmin
2-MIB OH . Geosmin 2-MIB
OH
/ .
46
(2001) /
Geosmin, 2-MIB .
Geosmin, 2-MIB , OH
(Peter and von Gunten, 2007)
Compound kO3 (M-1s-1) kOH (M-1s-1)
Geosmin 0.10 7.80109
2-Methylisoborneol (2-MIB) 0.35 5.09109
Geosmin, 2-MIB ,
OH Rct
.
/ ( // )
.
4 ()
,
.
Microcystis Anabaena , Microcystis
. Microcystin 7 1,000
, LR, LA, YR, RR 70
( , 1999). Microcystins
, Microcystin-LR .
Onstad et al. (2007) Microcystin-LR OH
(). 4.1105 M-1s-1
Microcystin-LR
.
2
47
Microcystin-LR , OH
(Onstad et al., 2007)
Compound kO3 (M-1s-1) kOH (M-1s-1)
Microcystin-LR 4.1105
1.11010
(Onstad et al., 2007) Microcystin-LR 1-2 ppm
. [ 2-18]
(13.1 ppm) Lake yhnjrvi 2 ppm Microcystin-LR , 3.6 ppm Lake Greifensee
0.5 ppm .
OH Scavenger t-BuOH
Microcystin-LR
Microcystin-LR .
[ 2-18] Microcystin-LR
(DOC: Lake yhnjrvi = 13.1 ppm, Lake Greifensee = 3.6 ppm) (Onstad et al., 2007)
Microcystin-LR [ 2]
.
48
[ 2-19] Microcystin-LR
, cell lysis
. Lam et al.(1995) Microcystin-LR
Microcystin-LR
.
.
Microcystin-LR Daly et al. (2007)
cell lysis Microcystin-LR
. , Maatouk et al.
(2002) Saint-Caprais reservoir (France)
98% .
, ( , 2003)
[ 3] Microcystin-RR 1.1, 6
. /
Microcystin
.
2
49
Microcystin ( , 2003)
Unit process
Concentration of Dissolved Microcystin
(g m-RR eq./L)
Aug. 26 Sep. 11 Sept. 18 Sept. 25
Raw water 0.014 0.01 0.025 0.028
Pre-chlorination 0.03 - - >0.031
Pre-ozonation ND 0.025 0.02 0.005
Coagulation/Sedimentation ND 0.02 0.01 0.011
Filtration ND 0.02 0.01 0.011
Post-chlorination ND ND ND ND
Geosmin, 2-MIB / OH .
/
.
OH
.
5
, , .
,
. . 2-MIB,
geosmin, microcystin
.
,
,
.
50
[ 2-20]
1.
DAF
.
.
[ 2-21]
2
51
- Hu 2003 , cyanobacteria
2-MIB geosmin .
, .
(algaecide)
. Esparza-Soto 2004 99% .
,
.
2~3 .
Dissolved Air Flotation (DAF)
Dissolved air flotation (DAF)
. Fuerst DAF
. DAF 90%
, .
DAF
. DAF
. DAF
70~100% .
DAF
, 2-MIB, geosmin, microcystin
. DAF
Marvin . Marvin DAF
3 . Suthaker
+ DAF
.
52
2. pH
. 1.01-1.18g/, ,
. .
Shehata PAC alum ferric
chloride .
2-MIB, geosmin, microcystin
Jar-test
. Sengco montmorillonite
2-MIB, geosmin, microcystin
, .
Clasen DOC
. DOC
, DOC .
,
.
pH
pH ,
pH .
pH , pH
NaOH . Yahi NaOH pH
, pH
.
Plummer
2
53
, ,
. DOC
.
3.
,
. 1g/cm3
.
.
.
.
.
. ,
, .
4.
- AWWA
.
. Mouchet Bonnelye
,
85% 99% ,
90% .
,
54
.
- Shehata Alum
. Rastogi Knappe 3 ppm 80%
, 0.5 ~ 1 ppm 20% .
.
.
- (ClO2) 91% . Gregory
92% ~ 100% 15
. , EPA 1
ppm .
- Plummer Edzwald
. Steffensen trihalomethane(THM)
haloacetic acid(HAA) 27% ~29%
.
.
- Rusin MIB geosmin
. Burch
, geosmin
2 ppm .
-
. Hao
43.8% 50% .
Ahn Microcystis aeruginosa , 3
66% 0.3% . Lee
2
55
8
,
.
- /DAF . Benoufella
/DAF FeCl3 23%, Al2(SO4)3 8% .
FeCl3 99.6%, Al2(SO4)3 99.7%
. /DAF
.
- (PAC) . Hilal Hankins
PAC 10 ~ 50 ppm 93% ~ 98% ,
, , ,
.
PAC PAC .
- UV UV 2-MIB
geosmin . Bin Alam UV 150 mW-s/cm
37, 75 mW-s/cm . UV37
mW-s/cm 90% , 75, 150 mW-s/cm 100%
.
- ,
. ,
.
.
.
56
- (GAC) (Column)
.
2-MIB geosmin .
.
6
Cynobacteria .
Intracellular Cynotoxin AOM Extracellular Cyanotoxins
. Intracellular Cynotoxin ,
. Preoxidation
AOM , Preoxidation
. /
AOM ,
. ,
.
AOM . DAF
. .
AOM Extracellular Cyanotoxins
MF UF .
. RO NF Cyanotoxins .
Microcystins Anatoxins . Cylindrosspermopsin
. Microcystins, Anatoxins, Cylindrosspermopsin
. Cyanotoxins .
Cyanotoxins . pH 8
Microcystins, Cylindrosspermopsin . Anatoxin-a . UV
Microcystins, Cylindrosspermopsin
2
57
. Microcystins, Cylindrosspermopsin, Anatoxin
. . Microcystins , Cylin-
drosspermopsin, Anatoxin .
8)
AOM .
AOM (Algal-drived Organic Matter) .
DON (Dissolved Organic Nitrogen) . Tight
. 0.1 ~ 1.0 mg/L,
0.1 ~ 0.4 mg/L . AOM ,
Organic Chloramines .
. .
MICROCYSTINS , ()
. , MICROCYSTINS , ,
ClO2 . /, DAF
. MICROCYSTINS
8) Cyanobacteria and Cyanotoxins: Information for Drinking Water Systems , EPA-810F11001 July, 2012
58
, . ()
. .
AOM/DON BAC .
, .
3
1
2
3
61
3
1
1.
3 2 ,
(/ )
( )
, , , , , , ,
.
10
.
.
(, MF/UF)
.
.
. 30
.
62
.
2.
. , ,
.
.
, , EDCs
( , 2009)
10
(P) .
, ,
. ,
, .
(2010) EDCs PPCPs
iopromide, atenolol, TCPP, TECP, musk ketone, naproxen, DEET,
carbamazepine, caffeine, and benzophenone .
3
63
, 6 (2007) 20
.
EDCs
( , 2007)
.
,
.
multiple barrier process .
.
, , 100-500 Da
EDCs . , ,
95 % .
(RO) (NF) EDCs PPCPs
. ,
. (2008)
pH 6.5 NF ,
64
BPA 95 % . ibuprofen
salicylic acids .
(MF), (UF), loose NF/RO
. ,
, .
(2007) (NF) EDCs, PhACs, PPCPs
. 200~300g/mol
NF 90% . , pKa
logKow NF
, .
logKow
( , 2007)
.
GAC EDCs
. kinetic ,
, , carbon , NOM
.
Le Noir (2009)
EDCs . EDCs
.
3
65
(Movingbed reactor) macroporous adsorption medium
EDCs .
macroporous poly(vinyl alcohol) cryogel MIP(Molecularly inprinted polymer) .
, Kim (2009) (iron-tetrasulfophthalocyanine (FeTsPc)
-immobilized Amberlite) H2O2 BPA, cefaclor, diclofenac, ibuprofen
.
(Wen , 2009) zeolite UV photolysis
estrogen .
. (Biological and chemical conversion)
, ,
EDCs .
, (AOPs)
EDCs PPCPs .
(oxidation power) , .
, EDCs .
Atrazine, Meprobamate, Tri(2-chloroethyl)phosphate (TCEP)
60 % , TCEP 5 % .
, UV , ,
EDC BPA
. Olmez-Hanci (Photochemistry and Photobiology Science, 2009)
BPA pH
. , UV (H2O2/UV-C) Dimethyl phthalate(DMP)
.
(supercritical fluid extraction), , EDCs
.
(2006) EE2,
E1, E2 progesterone .
66
EE2 P 4 mg/L , EE2 P (30 )
90%, 3 99% . OH scavenger
TBA , TBA 8 EE2 P
97% . EE2 P kinetic study
EE2(kO31.2104 M-1s-1), P(kO31.0102 M-1s-1 ) ,
.
E1 E2
(pH 7, O3 = 1 mg/L, E1 & E2 = 2 mg/L) ( , 2006)
(ng/L, n=20) (Snyder, 2009)
(3.5 mg/L dose)
(Snyder, 2009)
3
67
UV (40 mJ/cm2)
(Snyder, 2009)
(2.5 mg/L dose)
(Snyder, 2009)
Snyder (Ozone: Science and Engineering, 2008)
, UV , EDCs PPCPs
. 70 %
.
2
1.
.
2 .
, 1
.
.
68
2. (Geosmin, 2-MIB)
Geosmin 2-MIB (i.e. Cyanobacteria or Blue-green algae) 2
. 160-180 dalton ng/L
.
NF 1990 . C. R. Reiss
et al. 200 dalton, 300 dalton NF Geosmin
2-MIB , 300 dalton NF 40~65%
200 dalton NF 1 ng/L .
Geosmin 2-MIB
(Dixon et al.). NTR7450
40% , NF90 DK Geosmin 80% , 2-MIB
100% . Alt et al. 7
NF tight Geosmin 2-MIB 85%
.
3
69
4 Geosmin 2-MIB (Dixon , 2011)
3. (Microcystin)
(cyanotoxins) . (Microcystin)
7 .
,
. 1,000 NF
.
Gijsbertsen-Abrahamse et al. Microcystin-RR, LR, YR,
LA, Anatoxin-a NF .
Trisep TS80-4040 90%
. Anatoxin-a 165 dalton
200 dalton , 10 g/L
WHO 1 g/L .
70
(A. J. Gijsbertsen-Abrahamse , 2006)
.
(2-MIB,
Geosmin)
C. Robert Reiss, James S.
Tayler, Christophe Robert
Surface water treatment using nanofiltration - pilot
testing results and design considerations1999
Anand J. Mody
Feasibility of using nanofiltration as a polishing
process for removal of cyanobacterial exudates from
treated surface water
2004
Mike B. Dixon,
Chorlotte Falconet,
Lionel Ho,
Christopher W. K. Chow,
Brian K. ONeill,
Gayle Newcombe
Removal of cyanobacterial metabolites by nanofiltration
from two treated waters2011
(Microcystin)
M. R. Simpson,
B. W. MacLeod
An integrated approach to algal by-products including
bench scale evaluation of nanofiltration for microcystin
removal
2002
D. P. Smith,
V. Falls,
A. D. Levine,
B. W. Mac Leod,
M. Simpson,
T. L. Champlin
Nanofiltration to augment conventional treatment for
removal of algal toxins, taste and odor compounds,
and natural organic matter
2002
Margarida Ribau Teixeira,
Maria Joao RosaMicrocystins removal by nanofiltration membrane 2005
3
71
(Microcystin)
M. B. Dixon, C. Falconet,
L. Ho, C. W. K. Chow,
B. K. ONeill,
G. Newcombe
Nanofiltration for the removal of algal metabolites
and the effects of fouling2010
4. NF
NF ,
. , NF Lab-scale .
NF ,
lab-scale pilot scale .
5.
.
,
. ,
.
.
, .
(cavitation) ,
. .
72
20kHz .
/
(cavity) ,
.
.
,
(microstreaming) (micro-jet)
. , .
- 5000K, 1000atm
- 500
m/s (micro-jet)
.
, .
.
3
73
.
, .
,
.
,
.
.
()
Simon (1974)Anabaera
cylindricaNot reported; 1000 W/cm
3100 mL 2 75% protein released
Tang et al.
(2003)
Spirulina
plantensis1.7 MHz; 0.6 W/cm
3Not reported 9 Inhibition of growth
Hao et al.
(2004)
Spirulina
plantensis
1.7 MHz; 0.07 W/cm3
20 kHz; 0.014 W/cm3 800 mL 5
~50% reduction
33.33% reduction
Mahvi and
Dehghani
(2005)
Cyanobacteria 42 kHz; 0.07 W/cm3
1000 mL 2.5 100% reduction
Zhang et al.
(2006)
Microcystis
aeruginosa
20 kHz; 0.08 W/cm3
1320 kHz; 0.08 W/cm3 1000 mL 10
14.29% reduction
55% reduction
Joyce et al.
(2010)
Microcystis
aeruginosa
40 kHz; 0.021 W/cm3
864 kHz; 0.049 W/cm3 200 mL 30
Declumping effect
21.3% reduction
Pawalee et al.
(2011)
Natural
blooming algae200 kHz; 0.015 W/cm
3200 mL 0.5 94.9% reduction
Wu (2011) Microcystis
aeruginosa
40 kHz; 0.0466 W/cm3
864 kHz; 0.0929 W/cm3 400 mL 30
4.31% reduction
61.11% reduction
74
, ,
.
.
.
(specific heat ratio)
.
.
. /
/ Geosmin, 2-MIB
.
, Geosmin, 2-MIB
OH
.
.
/ (P) OH
(1) .
k1, k2 P , OH . OH
Rc (=[OH]/[O3]) , (1) (2) . P
( ) Rc,
([O3]dt) . Rc
3
75
.
-d[P]/dt = k1[O3][P] + k2[OH][P] (1) ln([P]/[P]0) = -(k1 + k2Rc)[O3]dt (2)
Rct Geosmin, 2-MIB (Onstad et al., 2007; Peter and von Gunten, 2007).
Full Scale /
. Rc
Rc .
Rct Full Scale ,
.
[ 3-1]
.
. .
(The European Commission, EC) Water Treatment by
Molecularly Imprinted Materials (WATERMIM) 2009-2012
,
.
76
.
[ 3-2]
. () , ()
, ()
OH .
[ 3-2]
(: , : , : )
4
4
79
4
1.
.
. ,
,
- .
2.
.
2 .
,
2 .
.
, 2 .
3. ,
. 2008
, .
.
.
5
5
83
5
1. AwwaRF Project #3111 Strategies for Controlling and Mitigating Algal Growth within Water
Treatment Plants. (Malcolm Pirnie, Inc.)
2. Hu, Q., M. Sommerfeld, L. Baker, and P. Westerhoff. (2003), Canal wall brushing - a control
measure for taste and odour problems in drinking water supplies in arid environments, J.Wat.
Supply. Res. Technol. AQUA, 52 (8), 545-554.
3. Esparza-Soto, M., A. Alum, A. Rashid, P. Westerhoff, M. Abbaszadegan, M. Sommerfeld, B.
Mobasher. (2004), Coatings and Cement-based Biocides to Control Algae Growth and Taste & Odor
Release in Water Distribution Canals, J. Wat. Supply. Res. Technol. AQUA, 52 (8), 545-554.
4. Fuerst, B.J., R. Garrett, and R. Wallace. (2004), Piloting and Design of Dissolved Air Flotation
Facilities for Taste and Odor Control, In Proc. of the Thirty Second Annual AWWA Water Quality
Technology Conference. Denver. Colo: AWWA.
5. Mouchet, P., and V. Bonnelye. (1998), Solving algae problems: French expertise and world-wide
applications, J. Wat. Supply. Res. Technol, AQUA, 47 (3), 125-141.
6. Marvin, R. (2005), Floating Away DAF Removes Algae, Eases Manganese Issues, Opflow, 31 (2), 10-12.
7. Wert, E.C., M.J. MacPhee, D.J. Rexing, R.E. Zegers, D.A. Cornwell. (2003), Pilot Plant Testing of
Dissolved Air Flotation for Algae and Arsenic emoval, In Proc. of the Thirty First Annual AWWA
Water Quality Technology Conference. Denver. Colo: AWWA.
8. Raczko, R., and A.J. Capuzzi. (2004), First High-Rate DAF in US - First Year of Operation, In Proc.
of the Thirty Second Annual AWWA Water Quality Technology Conference. Denver. Colo: AWWA.
9. Shehata, S., S.A. Badr, and S.Z. Wahba. (2002), Drinking Water Treatment Options for Eliminating
Freshwater Algae, Int. J. Environ. Studies, 59, 679-688.
10. Clasen, J., U. Mischke, M. Drikas, and C. Chow. (2000), An improved method for detecting
electrophoretic mobility of algae during the destabilization process of flocculation: flocculant demand
of different species and the impact of DOC, J. Wat. Supply. Res. Technol. AQUA, 49 (2), 89-101.
11. Chow, C.W.K., J. House, R.M.A. Velzeboer, M. Drikas, M.D. Burch, and D.A. Steffensen. (1998),
The effect of ferric chloride flocculation on cyanobacterial cells. Wat. Res., 32 (3), 808-814.
84
12. Montiel, A., and B. Welte. (1998), Preozonation coupled with flotation filtration: Successful removal
of algae, Wat. Sci. Technol., 37 (2), 65-73.
13. Hilal, N., and N. Hankins. (2004), Optimal strategy for algae control in potable water treatment
facilities, International Journal of Environmental Technology and Management, 4 (3), 236-252.
14. Yahi, H., S. Elmaleh, and J. Coma. (1994), Algal Flocculation-Sedimentation by pH Increase in a
Continuous Reactor, Wat. Sci. Technol., 30 (8), 259-267.
15. Plummer, J.D., and J.K. Edzwald. (2002), Effects of chlorine and ozone on algal cell properties
and removal of algae by coagulation, J. Wat. Supply. Res. Technol. AQUA, 51 (6), 307-318.
16. Sengco, M.R., and D.M. Anderson. (2004), Controlling Harmful Algal Blooms Through Clay Flocculation,
J. Eukaryot. Microbiol., 51 (2), 169-172.
17. Hu, Q., M. Sommerfeld, L. Baker, and P. Westerhoff. (2003), Canal wall brushing - a control
measure for taste and odour problems in drinking water supplies in arid environments, J. Wat.
Supply. Res. Technol. AQUA, 52 (8), 545-554.
18. Esparza-Soto, M., A. Alum, A. Rashid, P. Westerhoff, M. Abbaszadegan, M. Sommerfeld, B. Mobasher.
(2004), Coatings and Cement-based Biocides to Control Algae Growth and Taste & Odor Release
in Water Distribution Canals, J. Wat. Supply. Res. Technol. AQUA, 52 (8), 545-554.
19. Rusin, P., K. Fitzsimmons, D. Walker, M. Malcomson, and S. Maxwell. (1997), Control of Taste
and Odor Compounds in Drinking Water Produced by Cyanobacteria and Actinomycetes in a Canal
System, In Proc. of the Twenty Fifth Annual AWWA Water Quality Technology Conference.
Denver. Colo, AWWA.
20. Shehata, S., S.A. Badr, and S.Z. Wahba. (2002), Drinking Water Treatment Options for Eliminating
Freshwater Algae, Int. J. Environ. Studies, 59, 679-688.
21. Rastogi, N., and D. Knappe. (2000), Treatment of Algae-Laden Waters with Potassium Permanganate:
A Case Study for the Taste and Odor Causing Species Synura petersenii, In Proc. of the AWWA
Annual Conference. Denver. Colo, AWWA.
22. Gregory, D. (2005), Use of Chlorine Dioxide for Algae Control in Raw Water, In Proc. of the Thirty
Third Annual AWWA Water Quality Technology Conference. Denver. Colo, AWWA.
23. Plummer, J.D., and J.K. Edzwald. (2002), Effects of chlorine and ozone on algal cell properties
and removal of algae by coagulation, J. Wat. Supply. Res. Technol. AQUA, 51 (6), 307-318.
24. Steffensen, D., M. Burch, B. Nicholson, M. Drikas, and P. Baker. (1998), Management of Toxic
Blue-Green Algae (Cyanobacteria) in Australia, Environ. Toxicol., 14 (1), 183-195.
25. Burch, M.D., C.W.K. Chow, and P. Hobson. (2001), Algicides for Control of Toxic Cyanobacteria,
5
85
In Proc. of the Twenty Ninth Annual AWWA Water Quality Technology Conference. Denver. Colo,
AWWA.
26. Hilal, N., and N. Hankins. (2004), Optimal strategy for algae control in potable water treatment
facilities, International Journal of Environmental Technology and Management, 4 (3), 236-252.
27. Hao, H., M. Wu, Y. Chen, J. Tang, and Q. Wu. (2004), Cavitation mechanism in cyanobacterial
growth inhibition by ultrasonic radiation, Colloids Surf., B., 33, 151-156.
28. Ahn, C.Y., M.H. Park, S.H. Joung, H.S. Kim, K.-Y. Jang, and H.M. Oh. (2003), Growth Inhibition
of Cyanobacteria by Ultrasonic Radiation: Laboratory and Enclosure Studies, Environ. Sci. Technol.,
37 (13), 3031-3037.
29. Benoufella, F., A. Laplanche, V. Boisdon, and M.M. Bourbigot. (1994), Elimination of Microcystis
Cyanobacteria (Blue-green Algae) by an Ozoflotation Process: A Pilot Plant Study, Wat. Sci.
Technol., 30 (8), 245-257.
30. Bin Alam, M.D.Z., M. Otaki, H. Furumai, and S. Ohgaki. (2001), Direct and indirect inactivation
of Microcystis aeruginosa by UV-radiation, Water Res., 35 (4), 1008-1014.
31. Mouchet, P., and V. Bonnelye. (1998), Solving algae problems: French expertise and world-wide
applications, J. Wat. Supply. Res. Technol. AQUA, 47 (3), 125-141.
32. Lee, T.J., K. Nakano, and M. Matsumara. (2001), Ultrasonic Irradiation for Blue-green Algae Bloom
Control, Environ. Technol., 22, 383-390.
33. . (2011), .
34. De-Wei C, Peter H, Michael B, Tsair-Fuh L.. (2012), Measurement of cyanobacteria using in-vivo
fluoroscopy - Effect of cyanobacterial species, pigments, and colonies, Water Res., 46 (16), 5037-5048
35. Roelfsema C.M., Phinn S.R., Dennison W.C., Dekker A.G., Brando V.E., (2006), Monitoring toxic
cyanobacteria Lyngbya majuscula (Gomont) in Moreton Bay, Australia by integrating satellite image
data and field mapping, Harmful Algae., 5 (1), 45-56
36. Tiit K., Liisa M., Niklas S., Ele V., (2006), Monitoring cyanobacterial blooms by satellite remote
sensing, Estuarine, Coastal and Shelf Sci., 67 (1), 303-312
37. Miquel L., Elisabeth J. F., (2012), Controlling toxic cyanobacteria: Effects of dredging and
phosphorus-binding clay on cyanobacteria and microcystins, Water Res., 46 (5), 1447-1459
38. . . . 2001. .
39. Han M.Y., Kim W.T., (2001), A theoretical consideration of algae removal with clays, Microchemical
Journal, 68, 157-161
40. Wu C.D., Xu X.J., Liang J.L., Wang Q., Dong Q., Liang W.L., (2011), Enhanced coagualtion for
86
treating slightly polluted algae-containing surface water combining polyaluminum chloride (PAC)
with diatomite, Desalination, 279, 140-145
41. , , , , , , , , (2012), GOCI
(green algae bloom) .
42. Chorus I., Bartram J., (1999) Toxic cyanobacteria in water-A guide to their public health consequences,
monitoring and management, Routledge, London
43. Drikas M., (1994) Removal of cyanobacterial toxins by water treatment processes in "Toxic cyanobacteria-A
global perspective, Adelaide, March, 30-44
44. Falconer I. R., Burch M. D., Streffensen D. A., (1994) Toxicity of the blue-green alga(cyanobacterium)
Microcystis aeruginosa in drinking water to growing pigs, as an animal model for human inury and
risk assessment, Environ, Toxicol, and Water Quality, 9, 133-139
45. Ralconer 1. R., Runnegar M. T. C., Buchley T., Huyn V. L., Bradshaw P., (1989) Using activated carbon
to remove toxicity from drinking water containing cyanobacterial blooms, J, Am, Water, Works
Assoc., 81, 102-105
46. Himber K., Keijola A. M., Hiisvirta L. Pyysalo H., Sivonen K (1989) The effects of water treatment
processes on the removal of hepatotoxins from Microcystis and Oscillatoria cyanobacteria : a
laboratory study, Water Res., 23, 979-984
47. Hoffman J. R. H., (1976) Removal of Microcystis toxins in water purification proxess, Water S, A.,
2, 58~60
48. Inamori Y., R Sudo, K Kaya, Y Ohno, K Oyama (1990) Role of micro animals in the removal of
toxin-producing Microcystis viridis in bio-film processes, In, Proceedings of IAWPRC, 311~314
49. Keijola A. M., Himberg K., Esala A. L., Sivonen K., Hiisvirta L (1988) Removal of cyanobacterial
toxins in water treatment process : Laboratory and pilot-scale experiments, Toxicity Asess., 3,
1297~1303
50. Nicholson B. C., J. Rositano and M. D. Burch (1994) Destruction of cyanobacterial peptide hepatotoxins
by chlorine and chloramine, Water Res. 6, 1297~1303
51. Okino T. (1973) Studies on the blooming of Microcystis aeruginosa, Japan J, Bot, 20 81~402
52. Park H. K., S. U. Cheon, I. N. Jin, J. K. Ryu (1997) A study on the distribution of cyanobacterial strains
and microcystins in Korean freshwater, Preceedings of Asian WaterQual '97, IAWQ, 2, 1035~1043
53. Park M. J., I. Y., Hwang A. R., Choi., J. A. Lee, (1996) A strudy on the blue-green algal toxin of
the Sonaktong Reservoir, The Korean J. of Phycol. 11(1), 149~154
54. Takamura N. (1988) Ecology of water bloom of blue-green algae, with special reference to Microcystis,
5
87
Japan J, Phycology, 36, 65~79
55. James K. Edzwald and Johannes Haarhoff. 2012. Dissolved air flotation for water clarification
56. . , . 2001
57. 3. . 1999, 9(5), 590-595
58. 4. mirocystin .
1999, 32(4), 288-294
59. 4. .
1999, 233-234
60. 1. TiO2 Microcystin-RR .
2002, 8(1)
61. 3. TiO2 Microstis aeruginosa .
2000, 6(2), 2709-2712
62. 3. .
2005
63. 6. II.
. 2002, 11(12), pp. 1267-1274
64. 2. Microcystin-LR. . 2005, 20(2), 1-11
65. 4. .
1996
66. . -
. 1988 10(2), 31-39
67. 3. geosmin .
1999, 9(5), 581-589
68. 5. Microcystin .
2003, 29(1), 74-83
69. 4. pH , .
2003, 369-375
70. 5. .
2006, 32(4), 262-267
71. 2. . 2004, pp. 624-626
72. 2. .
88
2001, 347-350
73. 3. . 1996, 30-35
74. Daly, R. I.; Ho, L.; Brookes, J. D. Effect of chlorination on Microcystis aeruginosa cell integrity
and subsequent microcystin release and degradation. Environ. Sci. Technol. 2007, 41 (12), 4447-4453.
75. Lam, A. K. Y.; Prepas, E. E.; Spink, D.; Hrudey, S. E. Chemical control of hepatotoxic phytoplankton
blooms - Implications for human health. Water Res. 1995, 29 (8), 1845-1854.
76. Maatouk, I.; Bouaicha, N.; Fontan, D.; Levi, Y. Seasonal variation of microcystin concentrations in
the Saint-Caprais reservoir (France) and their removal in a small full-scale treatment plant. Water
Res. 2002, 36 (11), 2891-2897.
77. Onstad, G. D.; Strauch, S.; Meriluoto, J.; Codd, G. A.; von Gunten, U. Selective oxidation of key
functional groups in cyanotoxins during drinking water ozonation. Environ. Sci. Technol. 2007, 41
(12), 4397-4404.
78. Peter, A.; Von Gunten, U. Oxidation kinetics of selected taste and odor compounds during ozonation
of drinking water. Environ. Sci. Technol. 2007, 41 (2), 626-631.
79. . (1999), .
80. , , , . (1999), . . .
32, 127-134.
81. , (1996), 6 .
. 29, 347-362.
82. . (2007), , , 29, 593-609.
83. , , . (1998), () (1982-1997).
. 31, 119-128.
84. Baker J. A., Entsch B., Neilan B. A., and McKay D. B. (2002), Monitoring changing toxigenicity of
a cyanobacterial bloom by molecular methods. Appl Environ Microbiol 68: 6070-6076.
85. Baker PD and Humpage AR. (1994), Toxicity associated with commonly occurring cyanobacteria
in surface waters of the Murray-Darling Basin, Australia. Australian journal of marine and freshwater
research. 45, 773-786.
86. Bittencourt-Oliveira, M. C. (2003), Detection of potential microcystin-producing cyanobacteria in Brazilian
reservoirs with a mcy B molecular marker. Harmful algae 2: 51-60.
87. Chorus I and Bartram J. (1999), Toxic cyanobacteria in water: A guide to their public health.
pp.432.
88. Chorus I and J. Bartram (1999), Toxic Cyanobacteria in water, spon press.
5
89
89. Codd GA. (2000), Cyanobacterial toxins, the perception of water quality, and the prioritisation of
eutrophication control. Ecological Engineering. 16, 51-60.
90. Dittmann, E., T. Borner . 2005. Genetic contribution to the risk assessment of microcystin in the environment. Toxicol Appl Pharmacol 203: 192-200.
91. Dittmann, E., B. A. Neilan,T. Borner. (1999), Peptide synthetase gene soccurin various species of cyanobacteria. p.615-621. In : The phototroph p.prokaryotes.(Peschek,G.A.uriLoeffelhardtandG.
Schmetterereds.). KluwerAcademic/Plenum Press, NewYork.
92. Dittmann E., and Wiegand C. (2006), Cyanobacterial toxins-occurrence, biosynthesis and impact on
human affairs. Mol Nutr Food Res 50: 7-17.
93. Falconer I. R., M. D. Burch, D. A. Steffensen, M. Choice and O. R. Coverdale. (1994), Toxicity
of the blue-green algae(cyanovacterium) Microcystis aeruginosa in drinking water to growing pigs,
as an animal model for human injury and risk assessment. Environ. Toxicology and Wat. Quality
9, pp.131-139.
94. Gerber, N. N., Lechevalier, H. A. (1965), Geosmin and earthy smelling substance isolated from
Actinomycetes. Appl. Microbiol., 13, 6 pp.935-938.
95. Jeong JH, Jin HJ, Sohn CH, Suh KH and Hong YK. (2000), Algicidal activity of the seaweed
Corallina pilulifera against red tide microalgae. Journal of Applied Phycology. 12, 37-43.
96. Jochimsen EM, Carmichael WW, An JS, Cardo DM, Cookson ST, Holmes CEM, Antunes MBC, de
Melo Filho DA, lyra TM, Barreto VST, Azevedo SMFO and Jarvis WR. (1998), Liver failure and
death after exposure to microcystins at a hemodialysis center in Brazil. The New England Journal
of Medicine. 338, 873-878.
97. Kaebernick,M.and B.A.Neilan.(2001), Ecologicaland molecularinvestigations ofcyanotoxinproduction.
FEMSMicrobiol.Ecol.35:1-9.
98. Neilan,B.A.,E.Dittmann,L.Rouhiainen,R.A.Bass,V.Schaub,K.Sivonen, and T.Borner. (1999), Nonribosomal peptide synthesisand toxigenicity of cyanobacteria.JBacteriol.181:4089-4097.
99. Nishizawa,T.,M.Asayama,K.Fujii,K.Harada and M.Shirai. (1999), Genetic analysis of the peptide
synthetase genes for a cyclic heptapeptide microcystininMicrocystisspp.J.Biochem.126:520-529.
100. Poon K. F., Lam M. H., Lam P. K., Wong B. S. (2001), Determination of microcystins in cyanobacterial
blooms by solid-phase microetractionhigh-performance-liquid-chromatography. Environ. Toxicol.
Chem. 20: 1648-1655.
101. Rapala J and Sivonen K. (1998). Assessment of environmental conditions that favor hepatotoxic
and neurotoxic Anabaena spp. strains cultured under light limitation at different temperatures.
90
Microbial Ecology. 36, 181-192.
102. Sigee, D.C., Glenn, R., Andrews, M.J., Bellinger, E.G., Butler, R.D., Epton, H.A.S., and Hendry,
R.D. (1999), Biological control of cyanobacteria: principles and possibilities, Hydrobiologia, 395/396,
161-172.
103. Tillett D., Dittmann E., Erhard M., von Dohren H., Borner T., Neilan B.A. (2000), Structural organization of microcystin biosynthesis in Microcystis aeruginosa PCC7806: an integrated
peptide-polyketide synthetase system. Chem Biol 7: 753-764.
104. Tillett,D.,D.L.Parkerand B.A.Neilan. (2001),Detection oftoxigenicity by a probe forthe microcystin
synthetase A gene (mcyA)ofthe cyanobacterial genusMicrocystis:comparison oftoxicitieswith 16SrRNA
and phycocyanin operon (phycocyanin intergenicspacer)phylogenies.Appl.Environ.Microbiol.
67:2810-2818.
105. UNCCD (2009), Water scarcity and desertification. UNCCD the matic fact sheet series No. 2.
United Nations Convention to Combat Desertification, Hermann-Ehlers-Str. pp. 1-2.
106. WHO (1999), Toxic cyanobacteria in water: A guide to their public health consequences,
monitoring and management, The World Health Organization.
107. , , . 2006. . 108. . 2006. 5 .
109. . 2006. 2030.
110. . 2008. .
111. . 2009. . .
112. . 2007.
113. Centi G., Perathoner S. (1999), Oxidation catalysts: New trends, Current Opinion in Solid State and
Materials Science, 4 (1), 74-79.
114. Catrinescu C., Teodosiu C., Macoveanu M., Miehe-Brendl J., Le Dred R. (2003), Catalytic wet
peroxide oxidation of phenol over Fe-exchanged pillared beidellite, Water Res., 37 (5), 1154-1160.
115. James K. Edzwald and Johannes Haarhoff. 2012. Dissolved air flotation for water clarification
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