C
i
Country report on rice
cultivation practice:
Indonesia
cultivation practice:
Indonesia
Iman Rusmana
Iman Rusmana
Bogor
Agricultural
University
Expert
Meeting
2
‐
3
June
2011
Bangkok,
g
,
Thailand
INDONESIA
Population : 230 mill, 4
th
in the world
17 300 islands
INDONESIA
17.300 islands
Sumatera
Kalimantan
Papua
Sumatera
Sulawesi
Java
Bali
Java
Java :
60 % of population,
60 % f f
d
d
ti
260 % of food production
13 % of land
General Information
General Information
General
Information
General
Information
Figure
of
Indonesia
Population
: 230 million
Pop growth rate : 1 35%/year
Pop growth rate : 1.35%/year
Total land area : 190 million ha
Agriculture sector in Indonesia
Provides job opportunities to 20 million
j
households
Contributes 66% to GDP
Contributes 66% to GDP
Rice productivity : 5.01 ton/ha
Rice consumption : 137 kg/cap/year
Rice consumption : 137 kg/cap/year
250,000,000
200,000,000
n
100 000 000
150,000,000
p
ula
tio
50 000 000
100,000,000
Po
p
0
50,000,000
0
1971 1980 1990 1995 2000 2010
Y
Year
Area of Rice Cultivation and Production in 2005-2010
70
13.5
60
13
ton)
tion
40
50
12.5
m
illion
t
cultiv
at
n
ha)
30
12
ction
(m
o
f
Rice
c
(millio
n
10
20
11.5
Pr
odu
c
Ar
ea
o
(
Area
(ha)
Production (ton)
0
10
11
Production
(ton)
2005
2006
2007
2008
2009
2010
Year
Rice Variety
Rice Variety
Rice
Variety
Rice
Variety
Form 1943 up to 2007
:
Form 1943 up to 2007
:
190 rice varieties of wetland were released
30 rice varieties of dryland were released
30 rice varieties of dryland were released
Mostly cultivated:
IR-64
Ciherang
Ciliwung
IR-64
Ciherang
Ciliwung
Way Apo Buru
IR 42
Widas
Memberamo
Cisadane
IR 66
Memberamo
Cisadane
IR 66
3500000
4000000
Rice
Variety
mostly
cultivated
in
Indonesia
3000000
3500000
n
(ha)
2000000
2500000
u
ltiv
at
io
n
1000000
1500000
rea
of
C
u
0
500000
1000000
A
r
0
Rice
Variety
1 6 1.6 1.1 1.1 1.1
2.4
1.8
1.6
1.1
1.1
IR
‐
64
Ciherang
3.3
Ciliwung
Way
Apo
Buru
31.4
8
IR
42
Widas
Memberamo
Cisadane
21.8
IR
66
Cisokan
Percentage
of
Rice
Variety
Cultivated
in Indonesia
Cisokan
Cibogo
Methane emission and rice productivity of
p
y
several rice varieties
Rice
Cultivation
Practices
Rice
Cultivation
Practices
Map
of
Soil
Distribution
in
Indonesia
Map
of
Soil
Distribution
in
Indonesia
D
lk li
t
t i l
W t
id
t
t i l
Dry, alkaline parent material
Wet, acid parent material
10 10
Distribution of rice soils in Indonesia
Distribution of rice soils in Indonesia
Wetland
Distribution
by
Island
11.61%
12.62%
5.44% 0.80%
41.13%
11.61%
Java
Sumatera
28.39%
Sulawesi
Kalimantan
Bali &Nusa tenggara
Bali
&Nusa
tenggara
Total area of wetland in Indonesia in 2008 was 8.01 million
hectare
Wetland Area (ha) by Type of
Irrigation
3005016
Irrigation
Irrigated
5008720
wetland
Non
irrigated
wetland
Percentage of Wetland Area by
Type of Irrigation
62.50%
37.50%
Irrigated
wetland
Non
irrigated
g
wetland
64.4 66.4
67.3
70.0
80.0
Rice
Production
50.0
60.0
o
n
2009
2010
2011 (
di ti
)
34.9
29.5
36.4
30.0
36.4
30.9
30.0
40.0
Million
to
2011
(prediction)
10 0
20.0
30.0
0.0
10.0
Java
Out of Java
Indonesia
Java
Out
of
Java
Indonesia
12 000 000 10,000,000 12,000,000
o
n)
Rice
production
in
2009
6,000,000 8,000,000ction
(t
o
2 000 000 4,000,000Pr
odu
c
0 2,000,000 h D. tar a ara t a u m b i ta n kulu ung ung uan art a ara t gah arta mur ten a l i ara t m ur ara tgah tan mur tara gah tan agar talo arat uku tara arat pua
N ang gr o e Ace h 2 . Suma te ra U t 3 . Suma te ra B a 4. R i 5. J a m Suma ter a Sela 7. Beng k 8. Lamp u . Bangk a Belit u 0 . Riau K e pula u 11. D. K .I. Jak a 12. Ja w a B a 13. Ja w a Te n g 4. D. I. Yo gy ak a 15. Ja w a Ti m 16. Ban 17. B a sa Te n gg ar a B a a Te n gg ar a Ti m K aliman ta n B a aliman ta n Te n g aliman ta n Sela K aliman ta n Ti m 4. Sulaw e si U t . Sulaw e si Te n g Sulaw e si Sela Sulaw esi Te n gg 28. Gor o n t 2 9. Sulaw e si B a 30. Mal u 3 1. Maluk u U t 32. Pa pua B a 33. Pa p 1. N 2 3 6. S 9 1 0 1 18. Nu s 19. Nus 20. 21. K a 22. K a 23. K 2 25 . 26. 27. S 2 3
Province
Province
14000000
Rice
production
in
2010
(by
Province)
10000000
12000000
ton)
6000000
8000000
o
duction
(t
2000000
4000000
Rice
pr
o
0
2000000
ceh
ar
a
ara
t
iau
m
bi
tan
ulu
u
ng
u
ng
iau
art
a
ara
t
gah
art
a
m
ur
ten
B
ali
ara
t
m
ur
ara
t
gah
tan
m
ur
ar
a
gah
tan
a
ar
talo
ara
t
u
ku
ar
a
ara
t
p
ua
A
c
Suma
ter
a
Ut
Suma
ter
a
b
a
R
Ja
m
ma
te
ra
Sela
t
Bengk
Lamp
u
B
angk
a
Belit
u
K
epulauan
R
DKI
Jak
a
Ja
w
a
B
a
Ja
w
a
Te
n
g
DI
Yo
gy
ak
a
Ja
w
a
Ti
m
Ban
t
B
Te
n
gg
ar
a
B
a
Teng
gar
a
Ti
m
aliman
ta
n
B
a
m
an
ta
n
Te
n
g
m
an
ta
n
Sela
t
liman
ta
n
Ti
m
Sula
w
esi
Ut
ula
w
esi
Te
n
g
u
lawesi
Sela
t
awe
si
Te
n
gg
Gor
o
n
t
Sula
w
esi
B
a
Mal
u
Maluk
u
Ut
Pa
pua
B
a
Pa
p
S
S
Su
B
K
Nusa
Nusa
T
K
a
Ka
lim
Ka
lim
Ka
l
S
Su
Sul
a
2500000
Area
of
Rice
Cultivation
in
2010
(by
Province)
2000000 2500000 a) 1500000 Cultiv at ion (h a 500000 1000000 Ar ea of Rice 0 500000 t g g t r t r t r o t t Aceh u ma te ra Ut ar a u ma te ra bar at Riau Jambi m ate ra Sela ta n Bengk u lu Lampun g angk a Belitun g e pulauan Riau DKI Jak art a Ja w a Bar at Ja w a Te n ga h DI Yo gy ak art a Ja w a Timu r Ban ten Bali Teng gar a Bar at e ng ga ra Timu r iman ta n Bar at m an ta n Te n ga h m an ta n Sela ta n man tan Timu r Sulaw esi Ut ar a law e si Te n ga h law e si Sela ta n we si Te n gg ar a Gor o n tal o Sulaw esi Bar at Maluk u Maluk u Ut ar a Pa pua Bar at Pa pua Su Su Su m Ba Ke Nusa T Nusa Te Ka l Ka lim Ka lim Kali S Su Su Sula S
P fil
f h
t i 2008 2010
Profile of harvest in 2008-2010
Rice Cultivation Practices
Rice Cultivation Practices
Rice
Cultivation
Practices
Rice
Cultivation
Practices
Wetland
:
Flooded wetland is still the dominant of rice
production in Indonesia
SRI (System of Rice Intensification):
The Agriculture ministry of Indonesia plans to
increase the use of the SRI:
- 2011 : 100.000 ha
- 2012 : 200.000 ha
- 2015 : 1,5 million ha
Study of SRI in Indonesia
LOCATION
CONVEN
‐
S.R.I
Reference
YIELD INCREASES
NATIONAL AVE. 4.8 T/HA
TIONAL
(TONS/HA)
CENTRAL
LOMBOK
O
O
‐
11.2
Sato
Sa o ( 00 )
(2007)
SUMBAWA
‐
14.3
Sato
(2007)
GARUT
‐
13.5
Sato
(2007)
SUKABUMI
12 6
Sato (2007)
SUKABUMI
‐
12.6
Sato
(2007)
SUKABUMI,
NOSC
5.38
6.85
Ardi
and
Iswandi
(2008)
S.E.T.C.
PANDAAN
EAST
JAVA
5.5
10.5
Herodian
et
al
,
(2008)
BOGOR,
,
5.0
7.5
Sugiyanta (2008)
WEST
JAVA
g y
(
)
PADANG,
W.
SUMATRA
‐
9.67
‐
11 0
Musliar
(2007
‐
2008)
11.0
2008)
S.R.I
RICE
CULTIVATION
AT
THREE
LOCATIONS
IN
WEST
JAVA
RICE
CULTIVATION
TANJUNG
SARI
SUKABUMI
DEPOK
NO.
OF
TILLERS/HILL
CONVENTIONAL
30.30
a
30.30a
17.3a
INORGANIC
S.R.I
41.15b
41.15b
26.45c
YIELD
COMPON
ORGANIC
S.R.I
29.60a
29.60a
20.95b
MIXED
39.40b
39.40b
18.7ab
ENTS
39.40b
YIELD
(TON/HA)
RICE
CULTIVATION
TANJUNG
SARI
SUKABUMI
DEPOK
CONVENTIONAL
3.59
4.58
INORGANIC S R I
INORGANIC
S.R.I
4.35
5.32
ORGANIC
S.R.I
3.55
4.72
MIXED
3.
96
4.97
Correlation between SRI and Methane emission
METHANE
EMISSION
FROM
SUKARAJA
(SUKABUMI)
(Iswandi
et
al
. 2009)
TREATMENTS
2
WAT
4
WAT
6
WAT
8
WAT
10
WAT
AVERAGE
TREATMENTS
mg
C
‐
CH4
m
‐
2
h
‐
1
T0
=CONVENTIONAL
2021.2
2021.2
9939.3
9939.3
‐
1.95
1.95
‐
5.48
5.48
2.49
2.49
2391.1
T1=IN
‐
ORGANIC
S.RI.I
0.00
0.00
1.00
‐
3.77
‐
1.05
‐
0.76
T2=IN
‐
ORGANIC
S.RI.I
0.00
‐
279.4
5.07
‐
1.98
0.43
‐
55.2
T3=
MIXED
0.00
1517.3
3.50
1.25
5.82
S.R.I. REDUCED
CH
4
EMISSION
FROM RICE
FIELD
N2O
EMISSION
SUKABUMI
TREATMENTS
6
WAT
8
WAT
10
WAT
µg
N
‐
N20/m2/h
T0=
CONVENTIONAL
‐
173.35
158.78
36.06
T1=
IN
‐
ORGANIC
S.R.I.
4128.40
489.75
42.32
T2
=
ORGANIC
S.R.I.
‐
359.20
35.74
‐
100.84
T3=
MIXED
230.13
165.11
10.24
6
WAT
8
WAT
N20 EMISSION AT TANJUNGSARI
TREATMENTS
µg
N
‐
N20/m2/h
T0=CONVENTIONAL
63.88
423.91
ORGANIC
FERTILIZER
T1=IN
‐
ORGANIC
S.R.I.
97.14
1247.84
T2=ORGANIC
S.R.I
‐
509.96
‐
769.28
REDUCED N20
EMISSION
Total microbes and number of beneficial soil microbes
under conventional and S R I rice cultivation methods
under conventional and S.R.I. rice cultivation methods
at Tanjung Sari and Bogor (Iswandi et al. 2009)
Treatments
Total
Microbes*
(x10
5)
Azotobacter*
(x10
3)
Azospirillum*
(x10
3)
PSM*
(x10
4)
(x10
5)
Conventional (T0)
2.3a
1.9a
0.9a
3.3a
Inorganic S.R.I (T1)
2.7a
2.2a
1.7ab
4.0a
Organic S.R.I (T2)
3.8b
3.7b
2.8bc
5.9b
Inorganic S.R.I + BF (T3)
4 8c
4 4b
3 3c
6 4b
Inorganic S.R.I + BF (T3)
4.8c
4..4b
3.3c
6.4b
N2 fixation and CH4 oxidation activities of methanotrophic
bacteria isolated from rice field in West Java
No
Isolate
N
2
fixation activity
(nM/hour/ml
CH
4
oxidation
activity
Isolate
(nM/hour/ml
culture)
activity
(uM/day/ml culture)
1
BGM1
10,90
39,53
2
BGM3
7 10
56 62
2
BGM3
7,10
56,62
3
BGM5
10,80
75,85
3
BGM5
10,80
75,85
4
BGM9
15,30
59,60
Research in progress: Application of methanotrophic
bacteria as biofertilizer in rice cultivation (Conventional, SRI
and organic farming)
Management of Rice Residues
Management of Rice Residues
Management
of
Rice
Residues
Management
of
Rice
Residues
Estimation of biomass production on land use in
Estimation of biomass production on land use in
Indonesia
i
f i
d
i
Nutrient
content
of
rice
straw
and
grain
Total
area
of
rice
cultivation
with
and
4,000,000
without
rotation
crops
in
Indonesia
3,000,000
3,500,000
4,000,000
irrigation
2,000,000
2,500,000
,
,
e
a
(ha)
irrigation
1,000,000
1,500,000
Ar
e
0
500,000
rice
cultivation
with
crop
Rotation
rice
cultivation
without
Total area of rice cultivation with and
2500000
Total
area
of
rice
cultivation
with
and
without
rotation
crops
2000000
2500000
irrigation
(Java)
1500000
2000000
(ha)
Non
Irrigation
(Java)
1000000
Ar
ea
(
Irigation
(outside
Java)
500000
non
Java)
irrigation
(outside
0
rice
cultivation
with
crop Rotation
rice
cultivation
without crop Rotation
Soil organic carbon
f i t
ifi d l
l
d i
of intensified lowland rice areas
in Indonesia
1200
s
••
73% low soil organic
73% low soil organic
matter content (<2%),
matter content (<2%),
23%
di
i
23%
di
i
800
1000
S
am
p
le
•• 23% medium organic
23% medium organic
matter content (2
matter content (2--3%)
3%)
•• 4% have more than 3% of
4% have more than 3% of
400
600
o
f S
o
il
S
•• 4% have more than 3% of
4% have more than 3% of
soil organic matter
soil organic matter
due to the intensive
due to the intensive
0
200
No
.
o
due to the intensive
due to the intensive
weathering process, high
weathering process, high
rainfall and temperature,
rainfall and temperature,
land use change and
land use change and
0
< 2.0
2.0 - 3.0
> 3.0
Soil Organic Carbon
land use change, and
land use change, and
inappropriate management
inappropriate management
practices without returning
practices without returning
organic matter
organic matter to the field
to the field
Soil Organic Carbon
Soil Organic Carbon
Soil
Organic
Carbon
Soil
Organic
Carbon
Case study in West Java
Comparison of soil carbon sequestration between organic
and conventional rice fields in the top 10 cm soil depth
p
p
Comparison of soil carbon content profile between organic
and conventional rice fields in the top 30 cm soil depth.
p
p
References:
Anas, I., R. Widyastuti, T. R. Hutabarat, D. Nareswari , I. A. Hakim, A. Ningtyas, S. K. Santoso, W. Agusmiati, M. Ulfah and Eka. N. Sari.2009. Recent finding from SRI study. Laboratory of Soil Biotechnology, Department of Soil Science and Land Management, Faculty of Agriculture, Bogor Agricultural University (IPB)
B d P S i ik 2011 PRODUKSI PADI JAGUNG DAN KEDELAI (ANGKA SEMENTARA TAHUN 2010 DAN ANGKA
Badan Pusat Statistik. 2011. PRODUKSI PADI, JAGUNG, DAN KEDELAI (ANGKA SEMENTARA TAHUN 2010 DAN ANGKA RAMALAN I TAHUN 2011). No. 18/03/Th. XIV, 1 Maret 2011
Departemen Pertanian. 2007. Agenda Nasional [2008 –2015] dan Rencana Aksi [2008 –2009] Pengurangan Emisi Gas Rumah Kaca Sektor Pertanian. Departemen Pertanian Indonesia.
IAERI 2001. Emisi dan mitigasi gas CH4 dan N2O dari pengolahan tanah,varietas dan pemberian bahan organik dalam pola tanam padipalawijapada lahan sawah tadah hujan. Laporan tahunan 2001
IAERI. 2001. Pengaruh varietas padi terhadap besarnya emisi gas CH4 pada lahan sawah irigasi vertisol. Laporan tahunan 2001. Komatsuzaki, M and M. F, Syuaib, 2010. Comparison of the Farming System and Carbon Sequestration between Conventional and y p g y q Organic Rice Production in West Java, Indonesia. Sustainability 2, 833-843; doi:10.3390/su2030833
Litbang Deptan. 2007. Varietas unggul padi sawah 1943-2007. Informasi Ringkas Teknologi Padi . 1-10
Rachman, A. S. Rochayati, D. Setyorini. 2009. Soil fertility management technology. Indonesian Agency for Agricultural Research and Developmentp
Sabiham, S. and B. Mulyanto. 2005. BIOMASS UTILISATION IN INDONESIA: INTEGRATION OF TRADITIONAL AND MODERN PRINCIPLES OF ORGANIC MATTER MANAGEMENT. APECATC Workshop on Biomass Utilization held in Tokyo and Tsukuba Japan, . 19 –21 January 2005Setyanto, P. 2006. Varietas Padi Rendah Emisi Gas Rumah Kaca. Warta Penelitian dan Pengembangan Pertanian. 28(4): 12-13.
Setyanto,P. Burhan, H., Jatmiko, S.Y. 2008. Effectiveness of water regime and soil management on methane emission reduction from rice field. Prosiding seminar Nasional pencemaran lingkungan pertanian melalui ndekatan pengelolaan daerah aliran sungai (DAS) secara terpadu. 219-233.
Suharsih, P. Setyanto, A.K. Makarim. 2004. Emisi gas metan pada lahan sawah irigasi inceptisol akibat pemupukan nitrogen paday g p g p p p g p tanaman padi. PP Tanaman Pangan 22 (2) : 43-47
Swastika D. K.S, J. Wargiono, Soejitno, dan A. Hasanuddin. ANALISIS KEBIJAKA PENINGKATAN PRODUKSI PADI MELALUI EFISIENSI PEMANFAATAN LAHAN SAWAH DI INDONESIA. Analisis Kebijakan Pertanian. 5(1): 36-52