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LAMPIRAN
Lampiran 1 Hasil uji normalitas data habitat tangkap
One-Sample Kolmogorov-Smirnov Test
Ketinggian Tempat
pH Air Suhu Air
Suhu Udara
N 75
75 75
75 Normal Parameters
a,b
Mean 35.4533
4.8133 27.0800
28.6533 Std. Deviation
7.73076 .22016
.40403 .81362
Most Extreme Differences
Absolute .158
.255 .099
.269 Positive
.158 .243
.099 .269
Negative -.088
-.255 -.097
-.185 Kolmogorov-Smirnov Z
1.369 2.209
.855 2.330
Asymp. Sig. 2-tailed .047
.000 .458
.000
One-Sample Kolmogorov-Smirnov Test
KelembabanUdara N
75 Normal Parameters
a,b
Mean 74.3200
Std. Deviation 7.02536
Most Extreme Differences
Absolute .112
Positive .064
Negative -.112
Kolmogorov-Smirnov Z .969
Asymp. Sig. 2-tailed .305
One-Sample Kolmogorov-Smirnov Test
Kedalaman Parit
Lebar Parit N
75 75
Normal Parameters
a,b
Mean 30.4800
94.3200 Std. Deviation
15.13307 42.94030
Most Extreme Differences
Absolute .273
.287 Positive
.273 .287
Negative -.111
-.185 Kolmogorov-Smirnov Z
2.361 2.489
Asymp. Sig. 2-tailed .000
.000
a. Test distribution is Normal. b. Calculated from data.
Lampiran 2 Hasil uji t test dua sampel independen untuk suhu air dan kelembaban udara pada habitat tangkap
Group Statistics
KeberadaanUlar N
Mean Std.
Deviation Std. Error
Mean SuhuAir
tidak ditemukan ular 58
27.0483 .34603
.04544 ditemukan ular
17 27.1882
.55889 .13555
Kelembaban Udara
tidak ditemukan ular 58
73.6552 7.41395
.97350 ditemukan ular
17 76.5882
5.03809 1.22192
Independent Samples Test
Levenes Test for Equality of Variances
F Sig.
SuhuAir Equal variances
assumed 8.592
.005 Equal variances not
assumed KelembabanUdara
Equal variances assumed
3.085 .083
Equal variances not assumed
Independent Samples Test
t-test for Equality of Means t
df Sig.
2-tailed Mean
Difference SuhuAir
Equal variances assumed
-1.261 73
.211 -.13996
Equal variances not assumed
-.979 19.727 .339
-.13996 Kelembaban Udara Equal variances
assumed -1.527
73 .131
-2.93306 Equal variances not
assumed -1.877 38.413
.068 -2.93306
Independent Samples Test
t-test for Equality of Means
Std. Error Difference
95 Confidence Interval of the
Difference Lower
Upper SuhuAir
Equal variances assumed
.11099 -.36116
.08124 Equal variances not
assumed .14296
-.43844 .15852
Kelembaban Udara Equal variances assumed
1.92037 -6.76035
.89423 Equal variances not
assumed 1.56230
-6.09466 .22853
Lampiran 3 Hasil uji Kolmogorov-Smirnov pada habitat tangkap Two-Sample Kolmogorov-Smirnov Test
Frequencies
KeberadaanUlar N
KetinggianTempat tidak ditemukan ular
58 ditemukan ular
17 Total
75 pHAir
tidak ditemukan ular 58
ditemukan ular 17
Total 75
SuhuUdara tidak ditemukan ular
58 ditemukan ular
17 Total
75 Kedalaman_Parit
tidak ditemukan ular 58
ditemukan ular 17
Total 75
Lebar_Parit tidak ditemukan ular
58 ditemukan ular
17 Total
75
Test Statistics
a
Ketinggian Tempat
pH Air Suhu
Udara Most Extreme
Differences Absolute
.257 .125
.088 Positive
.257 .059
.088 Negative
-.052 -.125
-.072 Kolmogorov-Smirnov Z
.930 .452
.320 Asymp. Sig. 2-tailed
.352 .987
1.000
Test Statistics
a
Kedalaman Parit
Lebar Parit
Most Extreme Differences
Absolute .360
.301 Positive
.000 .301
Negative -.360
-.129 Kolmogorov-Smirnov Z
1.305 1.092
Asymp. Sig. 2-tailed .066
.184 a. Grouping Variable: KeberadaanUlar
Lampiran 4 Hasil uji normalitas data habitat sarang
One-Sample Kolmogorov-Smirnov Test
Suhu Udara
Kelembaban Udara
pH Tanah
N 127
127 127
Normal Parameters
a,b
Mean 27.4543
80.6457 4.8583
Std. Deviation .45211
6.15994 .15037
Most Extreme Differences
Absolute .090
.287 .355
Positive .090
.240 .326
Negative -.063
-.287 -.355
Kolmogorov-Smirnov Z 1.017
3.231 3.996
Asymp. Sig. 2-tailed .252
.000 .000
One-Sample Kolmogorov-Smirnov Test
Kedalaman Sarang
Lebar Mulut Sarang
N 127
127 Normal Parameters
a,b
Mean 106.6929
29.5433 Std. Deviation
51.49118 11.20286
Most Extreme Differences
Absolute .158
.161 Positive
.158 .161
Negative -.111
-.097 Kolmogorov-Smirnov Z
1.781 1.819
Asymp. Sig. 2-tailed .004
.003
a. Test distribution is Normal. b. Calculated from data.
Lampiran 5 Hasil uji t test dua sampel independen untuk suhu udara pada habitat bersarang
Group Statistics
Keberadaan Ular
N Mean
Std. Deviation
Std. Error Mean
SuhuUdara Tidak ada ular 114 27.4535
.42053 .03939
Ada ular 13 27.4615
.69347 .19233
Independent Samples Test
Levenes Test for Equality of Variances
F Sig.
SuhuUdara Equal variances assumed
4.987 .027
Equal variances not assumed
Independent Samples Test
t-test for Equality of Means t
df Sig.
2-tailed Mean
Difference SuhuUdara Equal variances
assumed -.060
125 .952
-.00803 Equal variances not
assumed -.041 13.025
.968 -.00803
Independent Samples Test
t-test for Equality of Means Std. Error
Difference 95 Confidence Interval
of the Difference Lower
Upper SuhuUdara Equal variances
assumed .13288
-.27101 .25495
Equal variances not assumed
.19632 -.43208
.41602
Lampiran 6 Hasil uji Kolmogorov-Smirnov habitat bersarang Two-Sample Kolmogorov-Smirnov Test
Frequencies KeberadaanUlar
N KelembabanUdara
Tidak ada ular 114
Ada ular 13
Total 127
pHTanah Tidak ada ular
114 Ada ular
13 Total
127 KedalamanSarang
Tidak ada ular 114
Ada ular 13
Total 127
LebarMulutSarang Tidak ada ular
114 Ada ular
13 Total
127 Test Statistics
a
Kelembaban Udara
pH Tanah
Kedalaman Sarang
Most Extreme Differences
Absolute .401
.098 .192
Positive .000
.098 .099
Negative -.401
.000 -.192
Kolmogorov-Smirnov Z 1.369
.334 .655
Asymp. Sig. 2-tailed .057
1.000 .785
Test Statistics
a
Lebar Mulut Sarang
Most Extreme Differences
Absolute .140
Positive .114
Negative -.140
Kolmogorov-Smirnov Z .479
Asymp. Sig. 2-tailed .976
a. Grouping Variable: KeberadaanUlar
Lampiran 7 Hasil uji normalitas data morfometri Python reticulatus yang tertangkap pada tingkat penangkap
One-Sample Kolmogorov-Smirnov Test Panjang
kepala Panjang
badan SVL
N 117
117 117
Normal Parameters
a,b
Mean 8.8470
290.8547 299.7221 Std. Deviation
1.52460 51.54999 52.15430
Most Extreme Differences
Absolute .241
.099 .095
Positive .241
.099 .095
Negative -.221
-.094 -.092
Kolmogorov-Smirnov Z 2.603
1.068 1.030
Asymp. Sig. 2-tailed .000
.204 .239
One-Sample Kolmogorov-Smirnov Test Panjang
ekor Jarak mata
Massa N
117 117
117 Normal Parameters
a,b
Mean 41.1538
3.3719 8.9937
Std. Deviation 14.16398
.85483 2.98571 Most Extreme
Differences Absolute
.171 .163
.056 Positive
.108 .163
.056 Negative
-.171 -.132
-.053 Kolmogorov-Smirnov Z
1.851 1.762
.602 Asymp. Sig. 2-tailed
.002 .004
.862
a. Test distribution is Normal. b. Calculated from data.
Lampiran 8 Hasil uji t test dua sampel independen pada morfometri Python reticulatus yang tertangkap pada tingkat penangkap
Group Statistics
Penangkap N
Mean Std.
Deviation Std. Error
Mean Panjang_badan Penangkap
A 50 300.4800
67.29989 9.51764
Penangkap B 33 279.7879
34.56313 6.01667
SVL Penangkap
A 50 308.8360
67.96710 9.61200
Penangkap B 33 288.6970
35.34339 6.15249
Independent Samples Test
Levenes Test for Equality of Variances
F Sig.
Panjang_bada n
Equal variances assumed
10.293 .002
Equal variances not assumed
SVL Equal variances
assumed 10.078
.002 Equal variances not
assumed
Independent Samples Test
t-test for Equality of Means t
df Sig.
2-tailed Mean
Difference Panjang
badan Equal variances
assumed 1.628
81 .107
20.69212 Equal variances not
assumed 1.838 77.128
.070 20.69212
SVL Equal variances
assumed 1.566
81 .121
20.13903 Equal variances not
assumed 1.765 77.465
.082 20.13903
Independent Samples Test
t-test for Equality of Means Std. Error
Difference 95 Confidence Interval
of the Difference Lower
Upper Panjang
badan Equal variances
assumed 12.71091
-4.59859 45.98284
Equal variances not assumed
11.25992 -1.72865
43.11289 SVL
Equal variances assumed
12.86069 -5.44972
45.72778 Equal variances not
assumed 11.41244
-2.58386 42.86192
Group Statistics
Penangkap N
Mean Std.
Deviation Std. Error
Mean Panjang badan Penangkap A
50 300.4800 67.29989
9.51764 Penangkap C
27 289.3704 36.84077
7.09001 SVL
Penangkap A 50 308.8360
67.96710 9.61200
Penangkap C 27 298.3956
37.61559 7.23912
Independent Samples Test
Levenes Test for Equality of Variances
F Sig.
Panjang badan Equal variances assumed
8.596 .004
Equal variances not assumed
SVL Equal variances
assumed 8.428
.005 Equal variances not
assumed
Independent Samples Test
t-test for Equality of Means t
df Sig.
2-tailed Mean
Difference Panjang
badan Equal variances
assumed .794
75 .430
11.10963 Equal variances not
assumed .936 74.96
5 .352
11.10963 SVL
Equal variances assumed
.738 75
.463 10.44044
Equal variances not assumed
.868 74.92 3
.388 10.44044
Independent Samples Test
t-test for Equality of Means Std. Error
Difference 95 Confidence Interval
of the Difference Lower
Upper Panjang
badan Equal variances
assumed 13.98629
-16.75249 38.97175
Equal variances not assumed
11.86818 -12.53318
34.75244 SVL
Equal variances assumed
14.14638 -17.74060
38.62149 Equal variances not
assumed 12.03310
-13.53112 34.41201
Group Statistics
Penangkap N
Mean Std.
Deviation Std. Error
Mean Panjang badan Penangkap B
33 279.7879 34.56313
6.01667 Penangkap C
27 289.3704 36.84077
7.09001 SVL
Penangkap B 33 288.6970
35.34339 6.15249
Penangkap C 27 298.3956
37.61559 7.23912
Independent Samples Test
Levenes Test for Equality of Variances
F Sig.
Panjang badan Equal variances assumed
.014 .906
Equal variances not assumed
SVL Equal variances
assumed .014
.905 Equal variances not
assumed
Independent Samples Test
t-test for Equality of Means t
df Sig.
2-tailed Mean
Difference Panjang
badan Equal variances
assumed -1.037
58 .304
-9.58249 Equal variances not
assumed -1.031 54.125
.307 -9.58249
SVL Equal variances
assumed -1.027
58 .309
-9.69859 Equal variances not
assumed -1.021 54.165
.312 -9.69859
Independent Samples Test
t-test for Equality of Means Std. Error
Difference 95 Confidence Interval
of the Difference Lower
Upper Panjang
badan Equal variances
assumed 9.23875
-28.07586 8.91087
Equal variances not assumed
9.29885 -28.22457
9.05959 SVL
Equal variances assumed
9.44047 -28.59574
9.19857
Independent Samples Test
t-test for Equality of Means Std. Error
Difference 95 Confidence Interval
of the Difference Lower
Upper Panjang
badan Equal variances
assumed 9.23875
-28.07586 8.91087
Equal variances not assumed
9.29885 -28.22457
9.05959 SVL
Equal variances assumed
9.44047 -28.59574
9.19857 Equal variances not
assumed 9.50043
-28.74447 9.34730
Lampiran 9 Hasil uji Kruskal-Wallis morfometri Python reticulatus tertangkap pada penangkap
Kruskal-Wallis Test Ranks
Penangkap N
Mean Rank
Panjang_kepala Penangkap A 50
45.13 Penangkap B
33 60.73
Penangkap C 27
68.31 Total
110 Panjang_ekor
Penangkap A 50
57.74 Penangkap B
33 53.12
Penangkap C 27
54.26 Total
110 Jarak_mata
Penangkap A 50
79.27 Penangkap B
33 32.35
Penangkap C 27
39.78 Total
110 Massa
Penangkap A 50
48.23 Penangkap B
33 55.98
Penangkap C 27
68.37 Total
110 Test Statistics
a,b
Panjang kepala
Panjang ekor Jarak mata Massa
Chi-Square 11.992
.476 53.379
7.004 df
2 2
2 2
Asymp. Sig.
.002 .788
.000 .030
a. Kruskal Wallis Test b. Grouping Variable: Penangkap
Lampiran 10 Hasil uji t test dua sampel independen pada morfometri Python reticulatus jantan dan betina yang tertangkap pada tingkat
penangkap
Group Statistics
Jenis_kelamin N
Mean Std. Deviation
Std. Error Mean Panjang
badan betina
49 296.8571
54.52866 7.78981
jantan 68
286.5294 49.24792
5.97219 SVL
betina 49
305.5657 55.04384
7.86341 jantan
68 295.5112
49.95784 6.05828
Independent Samples Test
Levenes Test for Equality of Variances
F Sig.
Panjang badan Equal variances assumed
.767 .383
Equal variances not assumed
SVL Equal variances assumed
.755 .387
Equal variances not assumed
Independent Samples Test
t-test for Equality of Means t
df Sig.
2-tailed Mean
Difference Panjang badan
Equal variances assumed 1.070
115 .287
10.32773 Equal variances not
assumed 1.052 97.001
.295 10.32773
SVL Equal variances assumed
1.029 115
.306 10.05454
Equal variances not assumed
1.013 97.328 .314
10.05454
Independent Samples Test
t-test for Equality of Means Std. Error
Difference 95 Confidence Interval of
the Difference Lower
Upper Panjang badan Equal variances assumed
9.65381 -8.79461
29.45007 Equal variances not
assumed 9.81571
-9.15373 29.80919
SVL Equal variances assumed
9.77058 -9.29910
29.40817 Equal variances not
assumed 9.92652
-9.64603 29.75510
Lampiran 11 Hasil uji Kruskal-Wallis morfometri Python reticulatus jantan dan betina tertangkap pada penangkap
Kruskal-Wallis Test Ranks
Jenis_kelamin N
Mean Rank
Panjang_kepala betina 49
53.47 jantan
68 62.99
Total 117
Panjang_ekor betina
49 59.70
jantan 68
58.49 Total
117 Jarak_mata
betina 49
62.50 jantan
68 56.48
Total 117
Massa betina
49 61.47
jantan 68
57.22 Total
117
Test Statistics
a,b
Panjang_kep ala
Panjang_ekor Jarak_mata Massa
Chi-Square 2.496
.037 .926
.447 df
1 1
1 1
Asymp. Sig.
.114 .848
.336 .504
a. Kruskal Wallis Test b. Grouping Variable: Jenis_kelamin
Lampiran 12 Hasil uji normalitas morfometri Python reticulatus yang terkumpul pada pengumpul perantara
One-Sample Kolmogorov-Smirnov Test
Panjang kepala
Panjang badan
SVL N
56 56
56 Normal Parameters
a,b
Mean 8.8023
276.0000 284.8023
Std. Deviation 3.41870
57.91467 59.99152
Most Extreme Differences Absolute
.201 .143
.110 Positive
.201 .143
.110 Negative
-.097 -.089
-.084 Kolmogorov-Smirnov Z
1.506 1.069
.826 Asymp. Sig. 2-tailed
.021 .203
.503
One-Sample Kolmogorov-Smirnov Test
Panjang ekor
Jarak mata Massa
N 56
56 56
Normal Parameters
a,b
Mean 38.7857
3.0370 8.3214
Std. Deviation 12.14116
.81388 4.08004
Most Extreme Differences Absolute
.254 .206
.192 Positive
.160 .206
.192 Negative
-.254 -.101
-.078 Kolmogorov-Smirnov Z
1.902 1.544
1.436 Asymp. Sig. 2-tailed
.001 .017
.032
a. Test distribution is Normal. b. Calculated from data.
Lampiran 13 Hasil uji t test dua sampel independen pada morfometri Python reticulatus jantan dan betina yang terkumpul pada tingkat
pengumpul perantara
Group Statistics
Jenis kelamin N
Mean Std. Deviation
Std. Error Mean
SVL betina
29 282.2121
56.86057 10.55874
jantan 27
287.5844 64.15516
12.34667 Panjang badan
betina 29
273.5862 55.02760
10.21837 jantan
27 278.5926
61.81253 11.89583
Independent Samples Test
Levenes Test for Equality of Variances
F Sig.
SVL Equal variances assumed
.532 .469
Equal variances not assumed
Panjang badan Equal variances assumed
.493 .486
Equal variances not assumed
Independent Samples Test
t-test for Equality of Means t
df Sig.
2-tailed Mean
Difference SVL
Equal variances assumed -.332
54 .741
-5.37238 Equal variances not
assumed -.331 52.07
4 .742
-5.37238 Panjang badan
Equal variances assumed -.321
54 .750
-5.00639 Equal variances not
assumed -.319 52.15
6 .751
-5.00639
Independent Samples Test
t-test for Equality of Means Std. Error
Difference 95 Confidence Interval of
the Difference Lower
Upper SVL
Equal variances assumed 16.17500
-37.80130 27.05655
Equal variances not assumed
16.24584 -37.97094
27.22619 Panjang badan
Equal variances assumed 15.61613
-36.31483 26.30206
Equal variances not assumed
15.68202 -36.47242
26.45964
ii
ABSTRACT SEPTI EKA WARDHANI.
Trades, Habitat Charactesictics and
Demographyc Parameters of Harvested Reticulated Pythons Python Reticulatus Scheider 1801 in Central Kalimantan Province. Under direction of Yanto
Santosa and Nandang Prihadi.
Reticulated python Python reticulatus has 180.000 heads annual quota. Despite of the commercial use of this species, a good management of the habitat and
population is needed for its sustainability. This research was aimed to identify trades, the habitat charactesictics, harvestings, demographyc parameters and
morphometry of harvested reticulated python. The research area was within harvesting areas, management authority, snakes collectors and traders in six
regency in Central Kalimantan Province. The research method for trades was done by interviewing several actors of management authority, snakes collectors
and traders. The habitat was performed by measuring the environment variables at every plot of capturing and nesting habitat, neither the snakes were captured or
not. Harvestings, demographyc parameters morphometry variables of harvested snakes at every plot of habitats, catchers and collector were calculated and
measured. Descriptive statistical analyzes showed that traders structure were consisted of collectors, middle man and legal permit owner. Kruskal Wallis and
Kolmogorov-Smirnov test showed that there was no habitat preference by the reticulated python. Harvesting estimation derived from location of survey was
26.73 at collector stage and about 31.95 at middle man stage comparing to annual quota of Central Kalimantan Province. Capturing criteria was based on
the size of body length, rather than the sex. The sex ratio of captured snakes in collectors was 1:0.72 and middle man was 1:1.07. The age class most captured
both in collectors and middle men was the adult male 99 and 89 from all male. This trend occurred because the adult male has a similar size with the
young female.
Keywords: reticulated python, Python reticulatus, trade, habitat, harvesting, demographyc parameter, morphometry.
iii
RINGKASAN
SEPTI EKA WARDHANI. Tata Niaga, Karakteristik Habitat dan Parameter Demografi Sanca Batik Python reticulatus Scheider 1801 yang Dipanen di
Propinsi Kalimantan Tengah. Dibimbing oleh Yanto Santosa dan Nandang Prihadi.
Sanca batik Python reticulatus Scheider 1801 adalah salah satu jenis ular yang banyak dieksploitasi. Pemanenan dari alam diperbolehkan namun
pemanenan tersebut harus menjamin adanya kelestarian. Populasi akan lestari bila jumlah kematian sama dengan jumlah kelahiran. Penangkapan yang kurang dari
batas maksimum perolehan secara lestari adalah lestari secara teoritis, sedangkan penangkapan pada atau dekat dengan batas maksimum perolehan secara lestari
akan bersifat lebih riskan. Otoritas Pengelola di Indonesia telah menerapkan sistem kuota untuk menjamin kelestarian populasi di alam. Namun selama ini,
kuota tahunan hanya ditetapkan berdasarkan jumlah realisasi tahun sebelumnya tanpa memperhatikan data yang lain. Kelemahan dalam penetapan kuota tangkap
tersebut menjadi dasar perlunya dilakukan penelitian untuk menjadi bahan pertimbangan dalam penetapan kuota tangkap. Penelitian ini ditujukan untuk
memberikan gambaran mengenai tata niaga, karakteristik habitat, panenan, parameter demografi dan morfometri Python reticulatus yang dipanen di
Kalimantan Tengah agar bisa dijadikan sebagai salah satu informasi ilmiah untuk penentuan kuota panenan yang lestari.
Data tata niaga diambil dengan metode wawancara dengan narasumber dari Balai KSDA Kalimantan Tengah, pengumpul perantara, penangkap dan
pemilik ijin. Jenis data yang dipergunakan untuk analisis tata niaga adalah pelaku, jalur, teknik penangkapan dan pengulitan, harga dan ukuran Python
reticulatus yang diperdagangkan. Analisis data menggunakan analisis deskriptif. Data karakteristik habitat diambil pada lokasi ular ditangkap. Data habitat tangkap
adalah adatidak ular, ketinggian lokasi m dpl, suhu air
C, suhu udara C,
kelembaban udara dan ph air. Data habitat bersarang adalah adatidak ular pada suatu sarang, suhu udara
C, kelembaban udara , pH tanah, kedalaman sarang cm dan lebar mulut sarang cm. Analisis yang digunakan adalah uji
Kruskal-Wallis, Kolmogorov-Smirnov, t-test dua sampel independen dan deskriptif. Data panenan, parameter demografi dan morfometri diambil di tingkat
penangkap dan pengumpul perantara dengan jenis data berupa jumlah, jenis kelamin. Analisis yang digunakan adalah analisis deskriptif.
Hasil penelitian menunjukkan bahwa pelaku tata niaga Python reticulatus di Kalimantan Tengah adalah penangkap, pengumpul perantara dan pemilik ijin
resmi penangkap berijin dan pengedar dalam negeri. Harga kulit Python reticulatus ditentukan oleh ukuran, yaitu ukuran dengan harga paling tinggi
adalah panjang ≥ 350 cm, lebar perut ≥ 32 cm dan lebar ekor ≥ 12 cm dengan harga Rp 80 000,00 pada tingkat pemilik ijin.
Habitat tangkap Python reticulatus di Kalimantan Tengah adalah lahan dengan penggunaan intensif oleh manusia, yaitu kebun kelapa sawit, kebun karet
dan rawa-rawa. Habitat bersarang Python reticulatus di Kalimantan Tengah adalah lubang antara kayu di bawah jembatan di kebun kelapa sawit. Hasil
analisis pada habitat tangkap maupun habitat bersarang, tidak ada satupun peubah
iv
yang berpengaruh secara signifikan terhadap perjumpaan Python reticulatus. Hal ini diduga menunjukkan bahwa Python reticulatus tidak memiliki habitat
preferensial.
Kelimpahan panenan pada penangkap pada saat penelitian adalah 117 ekor dan estimasi kelimpahan panenan berdasarkan kinerja penangkap pada akhir
tahun 2012 adalah 2 940 ekor atau 26.73 dari kuota tangkap Kalimantan Tengah tahun 2012. Kelimpahan panenan pada pengumpul perantara pada saat penelitian
adalah 56 ekor dan estimasi kelimpahan panenan berdasarkan kinerja pengumpul perantara pada akhir tahun 2012 adalah 3 515 ekor atau 31.95 dari kuota
tangkap Kalimantan Tengah tahun 2012.
Sex rasio Python reticulatus yang tertangkap pada tingkat penangkap adalah 1:0.72 dan pada tingkat pengumpul perantara adalah 1:1.07. Pada tingkat
penangkap, Python reticulatus yang tertangkap 57.26 pada kelas umur jantan dewasa, 40.17 pada kelas umur betina dewasa, 1.71 betina muda dan 0.85
jantan muda dan tidak ada bayi yang tertangkap. Pada pengumpul perantara, prosentase Python reticulatus jantan dewasa dan betina dewasa yang dikumpulkan
sama, yaitu masing-masing 42.86, sedangkan betina muda yang dikumpulkan sebanyak 8.93 dan jantan muda 5.36.
Berdasarkan hasil analisis, tidak ada perbedaan yang signifikan antara ukuran Python reticulatus jantan dan betina yang tertangkap, baik pada
penangkap maupun pada pengumpul perantara. Hal ini menunjukkan bahwa jenis kelamin bukan merupakan kriteria penangkapan. Penangkapan cenderung
mengikuti permintaan pasar dengan ukuran tertentu.
Kata kunci: sanca batik, Python reticulatus, tata niaga, habitat, panenan, parameter demografi, morfometri.