Lampiran 1. Daftar nama jenis pohon di areal IUPHHK PT Gunung Meranti
Nomor
Nama daerah
Nama botani
Famili
1
Ampas tebu
Gironniera nervosa
Olacaceae
2
Anggi, marijang
Sindora beccariana Backer
Caesalpiniaceae
3
Ara
Ficus variegata Bl.
Meliaceae
4
Awang, damar siput
Shorea faguetiana Heim
Dipterocarpaceae
5
Bakil
Artocarpus anisophyllus Miq.
Moraceae
6
Balau
Parashorea lucida
Dipterocarpaceae
7
Bangkirai
Shorea laevis Ridley
Dipterocarpaceae
8
Banitan
Monocarpia kalimantanensis Ke
βler Annonaceae
9
Bayur
Pterospermum javanicum Jungh.
Sterculiaceae
10
Bengkal
Nauclea subdita Steud.
Rubiaceae
11
Binjai
Mangifera decandra Ding Hou
Anacardiaceae
12
Bintangur/nyamplung
Calophyllum inophyllum L.
Guttiferae
13
Binuang
Octomeles sumatrana Miq.
Datiscaceae
14
Buah
Aglaia silvestris Merr.
Daphniphyllaceae
15
Buni
Antidesma leucopodum Miq.
Euphorbiaceae
16
Buno
Pternandra qaleata Ridley
Melastomataceae
17
Bunyau
Shorea lamellata Foxw.
Dipterocarpaceae
18
Cemara
Casuarina sumatrana
Casuarinaceae
19
Cempedak
Artocarpus integer Merr
Moraceae
20
Cengal
Hopea sangal
Dipterocarpaceae
21
Damar
Agathis boorneensis Warb.
Araucariaceae
22
Dungun/mangkulang
Heritiera elata Ridley
Sterculiaceae
23
Durian
Durio zibethinus Murray.
Bombacaceae
24
Gading
Diplospora singularis
Rubiaceae
25
Gaharu
Aquilaria malaccensis Lamk.
Thymelaeaceae
26
Gambir
Trigonostemon malayana H.k.f.
Euphorbiaceae
27
Geronggang
Cratoxylon arborescens Blume
Hyperioceae
28
Hopea jangkar
Hopea dryobalanoides Miq.
Dipterocarpaceae
29
Hovea, mangerawan
Hopea mangerawan Miq.
Dipterocarpaceae
30
Inger Burung
Ixonanthea petiolaris Blume
Linaceae
31
Jabon
Anthocephalus cadamba
Rubiaceae
32
Jambuan
Syzigium nigricans King
Myrtaceae
33
Jelutung rawa
Dyera polyphylla Steen.
Apocynaceae
34
Jelutung, pantung
Dyera costulata Hook.f.
Apocynaceae
Lampiran 1. (Sambungan)
Nomor
Nama daerah
Nama botani
Famili
36
Jingah pasir
Buchanania arborescens Blume
Anacardiaceae
37
Kapul
Baccaurea macrocarpa Mig.
Euphorbiaceae
38
Kapur bukit
Dryobalanops lanceolata Burck.
Dipterocarpaceae
39
Kapur merah
Dryobalanops beccarii Dyer
Dipterocarpaceae
40
Kayu arang
Diospyros elliptifolia Merr.
Ebenaceae
41
Kayu arang gunung
Diospyros forbesii Bakh.
Ebenaceae
42
Kayu arang kalimantan
Diospyros borneensis Hiern
Ebenaceae
43
Kayu bawang
Scorodocarpus borneensis Becc.
Olaceae
44
Kayu gading
Koilodepos bantamense Hassk.
Euphorbiaceae
45
Kayu Kikir
Drypetes kikir Airy Shaw
Euphorbiaceae
46
Kayu manis
Cinnamomum zeylanicum Breyn.
Lauraceae
47
Kayu seluang
Vatica venulosa Blume
Dipterocarpaceae
48
Kayu tulang
Milettia atropurpurea Benth.
Leguminoceae
49
Kelampai
Elateriospermum tapos Blume
Euphorbiaceae
50
Kempas madu
Koompassia excelsa Becc.
Caesalpinaceae
51
Kempas merah
Koompassia malaccensis Maing
Caesalpinaceae
52
Kenari
Canarium decumanum Gaertn.
Burseraceae
53
Kenari
Santiria tomentosa Blume
Burseraceae
54
Keramok
Dacryodes regusa H.J.L
Burseraceae
55
Keranji
Diallium indicum L.
Caesalpinaceae
56
Keruing
Dipterocarpus borneensis V.Sl.
Dipterocarpaceae
57
Keruing bulan
Dipterocarpus gracilis Blume
Dipterocarpaceae
58
Keruing tembaga
Dipterocarpus cornutus Dyer
Dipterocarpaceae
59
Keruing, tempehes
Dipterocarpus tempehes Sloot.
Dipterocarpaceae
60
Keruing, tempudau
Dipterocarpus confertus Sloot.
Dipterocarpaceae
61
Ketapang
Terminalia catappa L.
Combretaceae
62
Kojeng
Xylopia malayana Hook.f.&Th.
Annonaceae
63
Kolaka
Prunus arborea Kalkman
Rosaceae
64
Kumpang
Myristica iners Blume
Myristicaceae
65
Laban
Vitex pubescens Vahl.
Verbenaceae
66
Langsat
Aglaia agglomerata M.et.P
Meliaceae
67
Lapso, jambuan
Eugenia leptostemon Miq.
Myrtaceae
68
Lentang batu
Shorea platycados V.Sl.
Dipterocarpaceae
69
Lentang besar
Shorea macrobalanops Ashton
Dipterocarpaceae
Lampiran 1. (Sambungan)
Nomor
Nama daerah
Nama botani
Famili
71
Mahang
Macaranga pruinosa Muell.Arg.
Euphorbiaceae
72
Mahang putih
Macaranga hypoleuca Muell.Arg.
Euphorbiaceae
73
Mahawai
Mezettia parvifolia Becc.
Annonaceae
74
Mahusum
Shorea patoiensis Ashton
Dipterocarpaceae
75
Majau
Shorea lepidota Blume.
Dipterocarpaceae
76
Mandarahan
Horsfieldia grandis Warb.
Myristicaceae
77
Mandarahan
Knema pallens de Wilde
Myristicaceae
78
Mangga hutan
Mangifera macrocarpa Blume
Anacardiaceae
79
Manggisan
Garcinia mangostana L.
Guttiferae
80
Marijang tampar
Sindora leicocarpa Backer
Caesalpinaceae
81
Marok
Shorea ochracea Sym.
Dipterocarpaceae
82
Medang
Litsea firma H.k.f
Lauraceae
83
Mempaning
Costanopsis argentea A.DC.
Fagaceae
84
Meranti kuning
Shorea patoiensis Ashton
Dipterocarpaceae
85
Meranti kuningan
Shorea gibbosa Brandis
Dipterocarpaceae
86
Meranti merah
Shorea ovalis Blume
Dipterocarpaceae
87
Meranti merah
Shorea parvifolia Dyer.
Dipterocarpaceae
88
Meranti merah
Shorea pauciflora King
Dipterocarpaceae
89
Meranti merah
Shorea smithiana Sym.
Dipterocarpaceae
90
Meranti pakik
Shorea seminis Sloot.
Dipterocarpaceae
91
Meranti pasir
Parashorea densiiflora
Dipterocarpaceae
92
Meranti putih
Shorea bracteolata Dyer.
Dipterocarpaceae
93
Mersawa
Anisoptera costata Korth.
Dipterocarpaceae
94
Nangkaan
Artocarpus rigidus Blume
Moraceae
95
Nyatoh
Madhuca sericca Buch.
Sapotaceae
96
Nyatoh
Palaqium beccarianum van Royen
Sapotaceae
97
Nyatoh tembaga
Palaquium stenophyllum H.J.Lam
Sapotaceae
98
Pala hutan
Myristica maxima Warb
Myristicaceae
99
Pani-pani
Bouea oppsitifolia Meisn.
Anacardiaceae
100
Pelak, kelapis, pelepek
Shorea johorensis Foxw.
Dipterocarpaceae
101
Pelepek
Dipterocarpus humeratus Sloot.
Dipterocarpaceae
102
Penaga
Mesua macrantha Kosterm.
Guttiferae
103
Penguan/huru
Beilschemedia dictyoneura Kosterm.
Lauraceae
104
Perupuk
Lophopetalum beccarianum Pierre
Celastraceae
Lampiran 1. (Sambungan)
Nomor
Nama daerah
Nama botani
Famili
106
Petaling
Ochanostachys amentacea Mast.
Olocaceae
107
Pinang-pinangan
Pentace borneensis Pierre
Tiliaceae
108
Pulai
Alstonia scholaris R.Br.
Apocynaceae
109
Puspa
Schima wallichii Korth
Theaceae
110
Putat
Baringtonia curranii Merr
Lecytidaceae
111
Rahung
Durio dulcis Becc.
Bombacaceae
112
Rambutan
Nephelium lappaccum Linn.
Sapindaceae
113
Randuan
Ceiba pentandra Gaertn.
Bombacaceae
114
Rengas manuk
Gluta wallichii Hook.f.
Anacardiaceae
115
Rengas tembaga
Gluta renghas Linne
Anacardiaceae
116
Resak
Vatica pauciflora Korth.
Dipterocarpaceae
117
Resak
Vatica umbonata Hook.f.
Dipterocarpaceae
118
Resak gunung
Vatica oblongifolia Hook.f.
Dipterocarpaceae
119
Resak irian
Vatica rassak Blume
Dipterocarpaceae
120
Resak tembaga
Cotylelobium melanoxylon Hook.f.
Dipterocarpaceae
121
Rumpang
Castanopsis paucispina Soepadmo
Fagaceae
122
Scapium/lupi
Scapium macropodum Miq.
Sterculiaceae
123
Serua
Macaranga gigantea Muell.Arg.
Euphorbiaceae
124
Sialmanahun
Pternandra aurea Burkill
Melastomataceae
125
Simpur
Dillenia borneensis Hoogl.
Dilleniaceae
126
Simpur batu
Dillenia indica Linne
Dilleniaceae
127
Sintuk
Cinnamomum javanicum Blume
Lauraceae
128
Sirihan
Piper bettle
129
Tarap
Artocarpus elasticus Reinw.
Moraceae
130
Tebukau
Litsea oppositifolia Gibbs
Lauraceae
131
Tegelam
Shorea scholaris V.SL.
Dipterocarpaceae
132
Tembesu
Fagraea ceilanica Thunb.
Loganiaceae
133
Tengkawang
Shorea palembanica Miq.
Dipterocarpaceae
134
Tengkawang
Shorea pinanga Scheffer
Dipterocarpaceae
135
Tengkawang
Shorea stenoptera Burch.
Dipterocarpaceae
136
Terpis
Polyalthia glauca Boerl.
Annonaceae
137
Terunyan
Dysoxilum alliaceum Blume
Meliaceae
138
Ulin
Eusideroxylon zwageri T.et.B.
Lauraceae
Lampiran 2. Uji beda rata-rata terhadap riap d iameter dan tinggi tanaman Shorea
leprosula pada kelerengan datar- landa i (0%-15%) dan kelerengan
agak curam-curam (15%-30%)
t-Test: Paired Two Sample for Means
Diameter 2,08 2,44
Mean 1,955 2,07
Variance 0,00605 0,2738
Observations 2 2
Pearson Correlation 1
Hypothesized Mean Difference 0
df 1 t Stat -0,365079365 P(T<=t) one-tail 0,388577251 t Critical one-tail 6,313751514 P(T<=t) two-tail 0,777154503 t Critical two-tail 12,70620473
t hitung=0,3651 < t tab 12,7062 terima Ho (tidak berbeda nyata)
t-Test: Paired Two Sample for Means
High 268,41 319,59
Mean 275,85 298,94
Variance 25,7762 3983,6738
Observations 2 2
Pearson Correlation 1
Hypothesized Mean Difference 0
df 1 t Stat -0,562621832 P(T<=t) one-tail 0,336871912 t Critical one-tail 6,313751514 P(T<=t) two-tail 0,673743823 t Critical two-tail 12,70620473
t hitung=0,5626 < t tab 12,7062 terima Ho (tidak berbeda nyata)
Lampiran 3. Skor penutupan tajuk pada jalur tanam (a) dan jalur antara (b)`
Jalur Titik Densiometer Jalur PU Densiometer
pengamatan Datar-Landai A.crm-curam Datar-Landai A.crm-curam
1 1 53 59 1 1 85 84 2 55 55 2 84 85 3 45 60 3 87 86 4 45 55 4 81 82 5 50 54 5 82 85 6 47 55 6 84 83 7 45 60 7 80 81 8 27 48 8 82 84 9 35 55 9 83 82 10 50 50 10 85 85 11 55 58 11 84 84 12 60 60 12 82 85 13 65 55 13 83 82 14 55 60 14 82 81 15 57 57 15 81 85 16 55 55 16 82 84 17 60 53 17 82 83 Rata-rata 50,5 55,8 18 83 84 2 1 60 53 19 80 86 2 57 55 20 84 81 3 50 55 21 80 80 4 50 60 Rata-rata 82,7 83,4 5 55 53 2 1 86 84 6 50 60 2 84 84 7 53 48 3 82 88 8 45 55 4 82 81 9 25 50 5 82 82 10 40 50 6 83 84 11 55 60 7 83 84 12 55 55 8 82 85 13 60 53 9 83 82 14 53 60 10 81 85 15 55 55 11 83 85 16 55 55 12 85 82 17 60 53 13 83 84 Rata-rata 51,6 54,7 14 82 82 3 1 55 60 15 85 82 2 57 55 16 81 82 3 55 55 17 83 80 4 60 53 Rata-rata 82,9 83,3 5 55 60 6 55 55 Kelompok 7 53 53 (Skor) 8 40 60 0 9 40 55 (0) 10 50 48 1 11 60 60 (1-25) 12 60 53 2 13 60 55 (26-50) 14 53 55 3 15 55 53 (51-75) 16 55 60 4 17 55 35 (76-96) Rata-rata 54,0 54,4
Catatan: Jarak antar titik pengamatan 25 m
Lampiran 4. Prediks i volume tanaman Shorea leprosula menggunakan tiga mode l
persamaan pertumbuhan
Analisis data volume pada 3 model persamaan pertumbuhan tanaman Shorea leprosula
1) Test of homogeneity of variances
2) Anova
Blok RKT Umur Tnm Diameter (cm) Volume (m3)/ha
ke (tahun) P.sigmoid P.rata 2 P.kel. P.sigmoid P.rata 2 P.kel.
1 Nursery 2 0 0,51 0,37 0,00 0,00 0,00 3 1 1,54 1,22 0,02 0,01 0,07 4 2 2,59 2,13 0,08 0,05 0,28 5 3 3,65 3,10 0,20 0,13 0,70 6 4 4,72 4,13 0,38 0,27 1,35 7 5 5,81 5,22 0,65 0,49 2,26 8 6 6,91 6,37 1,01 0,82 3,46 9 7 8,02 7,57 1,48 1,28 4,95 10 8 9,16 8,84 2,09 1,91 6,75 11 9 10,3 10,17 2,82 2,73 8,88 12 10 11,46 11,55 3,70 3,78 11,34 13 11 12,64 13,00 4,76 5,11 14,13 14 12 13,84 14,50 6,01 6,77 17,27 15 13 15,05 16,06 7,45 8,80 20,76 16 14 16,28 17,69 9,11 11,26 24,59 17 15 17,53 19,37 11,01 14,21 28,79 18 16 18,8 21,11 13,17 17,71 33,34 19 17 20,08 22,91 15,59 21,85 38,26 20 18 21,39 24,77 18,33 26,69 43,54 21 19 22,72 26,69 21,39 32,31 49,20 22 20 24,07 28,67 24,80 38,81 55,23 23 21 25,44 30,71 28,57 46,27 61,65 24 22 26,83 32,81 32,75 54,81 68,45 25 23 28,25 34,96 37,37 64,52 75,65 26 24 29,69 37,18 42,45 75,53 83,26 27 25 31,15 39,46 48,00 87,95 91,28 28 26 32,65 41,79 54,15 101,91 99,72 29 27 34,17 44,19 60,84 117,54 108,60 30 28 35,71 46,64 68,12 135,00 117,94 31 29 37,29 49,15 76,11 154,43 127,73 32 30 38,9 51,73 84,81 176,00 138,01 33 31 40,53 54,36 94,22 199,87 148,80 34 32 42,2 57,05 104,48 226,21 160,10 35 33 43,91 59,80 115,67 255,22 171,94 36 34 45,65 62,61 127,78 287,09 184,36 37 35 47,42 65,48 140,86 322,02 197,36 38 36 49,24 68,41 155,13 360,22 210,99 39 37 51,09 71,40 170,50 401,92 225,26 40 38 52,99 74,45 187,22 447,36 240,22 41 39 54,93 77,56 205,29 496,77 255,90 42 40 56,91 80,72 224,78 550,40 272,33
Var Volume Sum of Squares df Mean Square F Sig.
Between Groups 81558,42888 2 40779,21444 3,479 0,0341
Within Groups 1371437,352 117 11721,68677
Total 1452995,781 119
Nilai Sig=0,03<0,05 --> Terima H1 ada satu perlakuan atau lebih yang berbeda
Var Volume df1 df2 Sig.
13,97321081 2 117 3,61605E-06
Lampiran 5. Indek nilai penting tingkat semai pada hutan bekas tebangan (Et+0)
pada kelerengan datar- landai dan agak curam-curam
Kelerengan datar-landai
Kelerengan agak curam-curam
No
Nama lokal
Nama latin
KR
FR
INP
Nama lokal
Nama latin
KR
FR
INP
(%)
(%)
(%)
(%)
(%)
(%)
1 Meranti merah
Shorea spp1
32,3529 14,6067 46,9597 Meranti merah
Shorea spp1
34,6491 23,6364 58,2855
2 Kayu arang
Dyospyros
11,7647 5,6180 17,3827 Kayu arang
Dyospyros
19,7368 16,3636 36,1005
3 Jambuan
Syzigium sp
4,7059 5,6180 10,3239 Keranji
Diallium
12,2807
9,0909 21,3716
4 Medang
Litsea bijuga
5,2941 4,4944
9,7885 Medang
Litsea bijuga
7,4561
5,4545 12,9107
5 Keranji
Diallium
2,9412 6,7416
9,6827 Pantung
Dyera costulata
4,8246
5,4545 10,2791
6 Hopea
Hopea sp
3,5294 5,6180
9,1474 Kumpang
Myristica
2,6316
3,6364 6,2679
7 Tengkawang
Shorea spp2
5,8824 2,2472
8,1295 Mahawai
Mizzethia
2,6316
3,6364 6,2679
8 Ampas tebu
Gironniera nervosa
2,3529 4,4944
6,8473 Scapium
Scapium
2,1930
3,6364 5,8293
9 Simpur
Dillenia
2,3529 4,4944
6,8473 Ampas tebu
Gironniera nervosa
1,7544
3,6364 5,3907
10 Mahawai
Mizzethia
1,7647 3,3708
5,1355 Bayur
Pterospermum sp
1,7544
3,6364 5,3907
11 Gading
Diplospora sp
1,7647 3,3708
5,1355 Tarap
Arthocarpus sp
2,6316
1,8182 4,4498
12 Petaling
Ochanostachys sp
1,7647 3,3708
5,1355 Banitan
Monocarpia sp
1,3158
1,8182 3,1340
13 Sirihan
Piper
1,7647 3,3708
5,1355 Kenari
Canarium
1,3158
1,8182 3,1340
14 Mahang
Macaranga
2,3529 2,2472
4,6001 Manggisan
Garcinia
0,8772
1,8182 2,6954
15 Randuan
Ceiba
2,3529 2,2472
4,6001 Sirihan
Piper
0,8772
1,8182 2,6954
16 Tapos
Elateriospermum
1,7647 2,2472
4,0119 Pelepek
Dipterocarpus lowii
0,4386
1,8182 2,2568
17 Tarap
Arthocarpus sp
1,7647 2,2472
4,0119 Resak
Vatica
0,4386
1,8182 2,2568
18 Resak
Vatica
0,5882 3,3708
3,9590 Nangkaan
Arthocarpus sp
0,4386
1,8182 2,2568
19 Kayu bawang
Scorodocarpus sp
1,1765 2,2472
3,4237 Jeunjing
Archiaenaron scandens
0,4386
1,8182 2,2568
20 Pantung
Dyera costulata
1,1765 2,2472
3,4237 Kolaka
Parinari sp
0,4386
1,8182 2,2568
21 Meranti kuning
Shorea spp3
1,7647 1,1236
2,8883 Petaling
Ochanostachys sp
0,4386
1,8182 2,2568
22 Keruing
Dipterocarpus
0,5882 2,2472
2,8354 Jambuan
Syzigium sp
0,4386
1,8182 2,2568
23 Kenari
Canarium
1,1765 1,1236
2,3001 Jumlah
100
100
200
24 Kolaka
Parinari sp
1,1765 1,1236
2,3001
25 Kumpang
Myristica
1,1765 1,1236
2,3001
26 Meranti putih
Shorea spp
0,5882 1,1236
1,7118
27 Pelepek
Dipterocarpus lowii
0,5882 1,1236
1,7118
28 Nangkaan
Arthocarpus sp
0,5882 1,1236
1,7118
29 Banitan
Monocarpia sp
0,5882 1,1236
1,7118
30 Bayur
Pterospermum sp
0,5882 1,1236
1,7118
31 Jelutung
Dyera sp
0,5882 1,1236
1,7118
32 Jeunjing
Archiaenaron scandens
0,5882 1,1236
1,7118
33 Sintuk
Cinamomum
0,5882 1,1236
1,7118
Lampiran 6. Indek nilai penting tingkat pancang pada hutan bekas tebangan (Et+0)
pada kelerengan datar- landai dan agak curam-curam
Kelerengan datar-landai
Kelerengan agak curam-curam
No
Nama lokal
Nama latin
KR
FR
INP
Nama lokal
Nama latin
KR
FR
INP
(%)
(%)
(%)
(%)
(%)
(%)
1 Meranti mrh Shorea spp1
34,630 16,484
51,114 Kayu arang
Dyospyros
16,6667 13,6364 30,3030
2 Kayu arang
Dyospyros
10,895 9,890
20,785 Meranti mrh Shorea spp1
9,2262 19,6970 28,9232
3 Medang
Litsea bijuga
8,171 8,791
16,962 Keranji
Diallium
14,2857 13,6364 27,9221
4 Keruing
Dipterocarpus spp
6,226 4,396
10,621 Mahawai
Mizzethia
8,6310
7,5758 16,2067
5 Keranji
Diallium
4,280 5,495
9,775 Kumpang
Myristica
7,4405
4,5455 11,9859
6 Mahang
Macaranga
6,226 3,297
9,522 Keruing
Dipterocarpus spp
5,9524
3,0303 8,9827
7 Simpur
Dillenia
2,335 6,593
8,928 Mahang
Macaranga hypoleuca 5,9524
3,0303 8,9827
8 Mahawai
Mizzethia
2,335 5,495
7,829 Medang
Litsea bijuga
3,2738
4,5455 7,8193
9 Gading
Diplospora sp
2,724 4,396
7,119 Kenari
Canarium
3,5714
3,0303 6,6017
10 Hopea
Hopea sp
1,946 3,297
5,242 Bayur
Pterospermum sp
4,7619
1,5152 6,2771
11 Jambuan
Syzigium sp
1,946 3,297
5,242 Scapium
Scapium
2,0833
3,0303 5,1136
12 Ampas tebu Gironniera nervosa
2,724 2,198
4,922 Tapos
Elateriospermum
2,0833
3,0303 5,1136
13 Nyamplung
Calophyllum
1,556 3,297
4,853 Pantung
Dyera costulata
1,7857
3,0303 4,8160
14 Petai
Parkia
1,556 3,297
4,853 Jeunjing
Archiaenaron scanden 3,2738
1,5152 4,7890
15 Pantung
Dyera costulata
1,946 2,198
4,143 Ampas tebu Gironniera nervosa
2,0833
1,5152 3,5985
16 Kelampai
Elateriospermum sp
2,724 1,099
3,823 Jambuan
Syzigium sp
1,4881
1,5152 3,0032
17 Bayur
Pterospermum sp
1,556 2,198
3,754 Binuang
Octomeles sp
1,1905
1,5152 2,7056
18 Kumpang
Myristica
1,167 2,198
3,365 Sirihan
Piper
1,1905
1,5152 2,7056
19 Tarap
Arthocarpus sp
1,167 2,198
3,365 Terentang
Camnosperma
1,1905
1,5152 2,7056
20 Kayu bawang Scorodocarpus sp
0,778 2,198
2,976 Hovea
Hopea multiflora
0,8929
1,5152 2,4080
21 Balau
Parashorea
0,778 1,099
1,877 Resak
Vatica
0,8929
1,5152 2,4080
22 Tengkawang Shorea spp4
0,389 1,099
1,488 Petai
Parkia
0,8929
1,5152 2,4080
23 Bangkirai
Shorea leavis
0,389 1,099
1,488 Pelepek
Dipterocarpus lowii
0,5952
1,5152 2,1104
24 Scapium
Scapium
0,389 1,099
1,488 Petaling
Ochanostachys
0,5952
1,5152 2,1104
25 Banitan
Monocarpia sp
0,389 1,099
1,488
26 Bombaceae
Bombaceae
0,389 1,099
1,488
27 Jeunjing
Archiaenaron scandens 0,389 1,099
1,488
Lampiran 7. Indek nilai penting tingkat tiang pada hutan bekas tebangan (Et+0)
pada kelerengan datar- landai dan agak curam-curam
Kelerengan datar-landai Kelerengan agak curam-curam
No Nama lokal Nama latin KR FR DR INP Nama lokal Nama latin KR FR DR INP
(%) (%) (%) (%) (%) (%) (%) (%)
1 Meranti mrh Shorea spp1 40,94 14,62 40,60 96,16 Meranti mrh Shorea spp1 51,08 23,61 52,83 127,52 2 Keranji Diallium sp 11,42 13,08 12,35 36,85 Keranji Diallium sp 12,23 13,89 11,62 37,74 3 Keruing Dipterocarpus spp 6,69 4,62 6,96 18,26 Keruing Dipterocarpus spp 7,19 11,11 5,93 24,24 4 Bangkirai Shorea leavis 4,33 4,62 4,88 13,83 Medang Litsea sp 3,60 5,56 3,82 12,98 5 Resak Vatica rasak 3,94 5,38 4,35 13,67 Hovea Hopea multiflora 2,88 5,56 3,43 11,86 6 Mandarahan Knema pallens 3,54 5,38 3,76 12,69 Scapium Scapium podocarpum 2,16 4,17 1,96 8,29 7 Ky arang Dyospyros bornensis 2,36 4,62 2,14 9,12 Kelampai Elateriospermum sp 2,16 4,17 1,87 8,19 8 Hovea Hopea multiflora 2,36 3,85 2,74 8,94 Mahang Macaranga sp 2,16 2,78 2,19 7,12 9 Meranti pth Shorea spp2 2,36 3,08 1,95 7,39 Jangkang Zingiberaceae 2,16 2,78 2,14 7,08 10 Jambuan Syzigium sp 1,97 3,08 2,18 7,22 Binuang Octomeles sp 1,44 2,78 2,17 6,39 11 Medang Litsea sp 1,97 3,08 1,97 7,02 Meranti pth Shorea spp2 2,16 2,78 1,27 6,21 12 Meranti kng Shorea spp3 1,57 3,08 1,57 6,22 Mandarahan Knema pallens 1,44 2,78 1,51 5,73 13 Jangkang Zingiberaceae 1,57 3,08 1,57 6,22 Bangkirai Shorea leavis 1,44 2,78 1,50 5,71 14 Banitan Monocarpia sp 1,18 2,31 1,22 4,71 Jelutung Alstonia sp 1,44 2,78 0,90 5,12 15 Tarap Arthocarpus rigidus 1,18 2,31 1,15 4,64 Meranti kng Shorea spp3 1,44 2,78 0,90 5,11 16 Kumpang Myristica iners 1,18 2,31 0,88 4,37 Penguan Beilschmedia sp 0,72 1,39 1,25 3,36 17 Binuang Octomeles sp 0,79 1,54 0,88 3,20 Petaian Jacaranan chelosia 0,72 1,39 1,17 3,27 18 Bintangur Calophyllum inophyllum 0,79 1,54 0,70 3,02 Galam gunungMelaleuca sp 0,72 1,39 0,97 3,08 19 Cempedak Arthocarpus spp 0,79 1,54 0,67 3,00 Ulin Eusideroxylon zwagery 0,72 1,39 0,90 3,01 20 Kelampai Elateriospermum sp 0,79 1,54 0,65 2,97 Banitan Polyalthia glauca 0,72 1,39 0,58 2,69 21 Pelepek Dipterocarpus lowii 0,79 1,54 0,64 2,96 Pantung Dyera costulata 0,72 1,39 0,58 2,69 22 Nyamplung Calophyllum sp 0,79 1,54 0,48 2,80 Parashorea Parashorea sp 0,72 1,39 0,50 2,61 23 Mahusum Shorea fatoiensis 0,79 0,77 0,63 2,18
24 Manggisan Garcinia sp 0,39 0,77 0,62 1,78 25 Mahang Macaranga hypoleuca 0,39 0,77 0,58 1,74 26 Balau Parashorea lucida 0,39 0,77 0,48 1,64 27 Petaian Jacaranan chelosia 0,39 0,77 0,42 1,59 28 Waru Hibiscus sp 0,39 0,77 0,41 1,57 29 Nangkaan Arthocarpus spp 0,39 0,77 0,37 1,54 30 Tapos Elateriospermum tapos 0,39 0,77 0,36 1,52 31 Penguan Beilschmedia sp 0,39 0,77 0,29 1,46 32 Cengal Hopea sangal 0,39 0,77 0,24 1,40 33 Mersawa Anisoptera spp 0,39 0,77 0,24 1,40 34 Parashorea Parashorea sp 0,39 0,77 0,23 1,39 35 Pantung Dyera costulata 0,39 0,77 0,23 1,39 36 Scapium Scapium podocarpum 0,39 0,77 0,21 1,38 37 Ky bawang Scorodocarpus sp 0,39 0,77 0,21 1,38 38 Balsaan Ochroma sp 0,39 0,77 0,21 1,38
Lampiran 8. Indek nilai penting tingkat pohon pada hutan bekas tebangan (Et+0)
pada kelerengan datar- landai dan agak curam-curam
Kelerengan datar-landai
Kelerengan agak curam-curam
No Nama lokal
Nama latin
KR
FR
DR
INP Nama lokal
Nama latin
KR
FR
DR
INP
(%)
(%)
(%)
(%)
(%)
(%)
(%)
(%)
1 Meranti mrh Shorea spp1
38,54 17,24 42,46 98,24 Meranti mrh Shorea spp1
48,05 20,73 54,20 122,98
2 Keranji
Diallium sp
8,29 7,76 6,83 22,88 Keranji
Diallium sp
9,09 10,98 8,00 28,06
3 Bangkirai
Shorea leavis
6,83 6,03 8,29 21,16 Scapium
Scapium podocarpum
6,49 8,54 5,21 20,24
4 Keruing
Dipterocarpus spp
6,34 6,03 5,03 17,40 Bangkirai
Shorea leavis
4,55 7,32 7,03 18,89
5 Kempas
Koompassia malaccensis 3,41 4,31 3,27 10,99 Keruing
Dipterocarpus spp
4,55 3,66 4,20 12,41
6 Medang
Litsea sp
3,41 4,31 2,35 10,07 Tengkawang Shorea pinanga
1,95 4,88 1,93 8,76
7 Tengkawang Shorea pinanga
0,98 1,72 6,83 9,53 Medang
Litsea sp
2,60 3,66 1,61 7,87
8 Scapium
Scapium podocarpum
2,44 4,31 2,68 9,43 Parashorea Parashorea sp
2,60 3,66 1,37 7,63
9 Kelampai
Elateriospermum sp
2,44 4,31 2,35 9,09 Meranti pth Shorea spp2
2,60 3,66 1,35 7,61
10 Mandarahan Knema pallens
1,95 3,45 0,59 5,99 Kempas
Koompassia malaccensis
1,30 2,44 3,67 7,40
11 Pelepek
Dipterocarpus lowii
1,46 2,59 1,76 5,81 Mandarahan Knema pallens
1,95 2,44 1,21 5,60
12 Mahawai
Mezettia parvifolia
1,46 2,59 1,09 5,14 Ky arang
Dyospyros bornensis
1,30 2,44 1,00 4,74
13 Meranti pth Shorea spp2
1,46 2,59 1,05 5,10 Jangkang
Zingiberaceae
1,30 2,44 1,00 4,73
14 Ulin
Eusyderoxylon zwagery
1,95 1,72 1,21 4,89 Tarap
Arthocarpus rigidus
1,30 2,44 0,86 4,60
15 Hovea
Hopea multiflora
1,46 2,59 0,63 4,68 Kelampai
Elateriospermum sp
1,30 2,44 0,74 4,48
16 Jambuan
Syzigium sp
0,98 1,72 1,51 4,21 Resak
Vatica rasak
1,30 2,44 0,66 4,39
17 Petaian
Jacaranan chelosia
1,46 1,72 0,75 3,94 Pulai
Alstonia sp
1,30 2,44 0,50 4,24
18 Ky bawang Scorodocarpus sp
0,98 1,72 1,17 3,87 Meranti kng Shorea spp3
0,65 2,44 0,22 3,31
19 Meranti kng Shorea spp3
0,98 1,72 0,88 3,58 Hovea
Hopea multiflora
0,65 1,22 1,05 2,92
20 Kumpang
Myristica iners
0,98 1,72 0,75 3,45 Cempedak
Arthocarpus sp
0,65 1,22 0,91 2,78
21 Kapur
Dryobalanops spp
0,49 0,86 1,97 3,32 Jambuan
Syzigium sp
0,65 1,22 0,91 2,78
22 Tarap
Arthocarpus rigidus
0,98 1,72 0,59 3,29 Ky bawang Scorodocarpus sp
0,65 1,22 0,58 2,45
23 Bintangur
Calophyllum inophyllum 0,98 0,86 1,42 3,26 Pelepek
Dipterocarpus lowii
0,65 1,22 0,41 2,28
24 Jangkang
Zingiberaceae
0,98 1,72 0,46 3,16 Banitan
Polyalthia glauca
0,65 1,22 0,41 2,28
25 Parashorea Parashorea sp
0,98 1,72 0,42 3,12 Galam gunungMelaleuca sp
0,65 1,22 0,38 2,25
26 Nyatoh
Palaquium sp
0,98 1,72 0,42 3,12 Mahawai
Mezettia parvifolia
0,65 1,22 0,33 2,20
27 Manggisan Garcinia sp
0,98 1,72 0,34 3,03 Pantung
Dyera costulata
0,65 1,22 0,25 2,12
28 Resak
Vatica rasak
0,98 0,86 0,38 2,21
29 Marijang
Sindora sp
0,49 0,86 0,54 1,89
30 Mahusum
Shorea fatoiensis
0,49 0,86 0,38 1,73
31 Tapos
Elateriospermum tapos
0,49 0,86 0,29 1,64
32 Balau
Parashorea lucida
0,49 0,86 0,25 1,60
33 Mersawa
Anisoptera spp
0,49 0,86 0,21 1,56
34 Binuang
Octomeles sp
0,49 0,86 0,21 1,56
35 Pantung
Dyera costulata
0,49 0,86 0,21 1,56
36 Nangkaan
Arthocarpus spp
0,49 0,86 0,17 1,52
37 Ky arang
Dyospyros bornensis
0,49 0,86 0,17 1,52
38 Cengal
Hopea sangal
0,49 0,86 0,13 1,48
Lampiran 9. Hasil anova da n LSD terhadap riap tahunan rata-rata kelompok
meranti, dipterocarp non meranti, ko mersial lain ditebang dan
komersial lain tidak ditebang
Sig.=0,011< 0,05 terima H1 (berbeda nyata)
Keterangan:
1= kelompok meranti
2= kelompok dipterocarp non meranti
3= kelompok komersial lain ditebang
4= kelompok komersial lain tidak ditebang
1
2
3
4
ANOVA VAR00002 ,340 3 ,113 4,599 ,011 ,592 24 ,025 ,933 27Bet ween Groups Wit hin Groups Total
Sum of
Squares df Mean Square F Sig.
Multiple Compa risons
Dependent Variable: VA R00002 LSD -,03320 ,08396 ,696 -,2065 ,1401 ,21024* ,08396 ,019 ,0370 ,3835 ,19453* ,08396 ,029 ,0212 ,3678 ,03320 ,08396 ,696 -,1401 ,2065 ,24344* ,08396 ,008 ,0702 ,4167 ,22773* ,08396 ,012 ,0544 ,4010 -,21024* ,08396 ,019 -,3835 -,0370 -,24344* ,08396 ,008 -,4167 -,0702 -,01571 ,08396 ,853 -,1890 ,1576 -,19453* ,08396 ,029 -,3678 -,0212 -,22773* ,08396 ,012 -,4010 -,0544 ,01571 ,08396 ,853 -,1576 ,1890 (J) V AR00001 2,00 3,00 4,00 1,00 3,00 4,00 1,00 2,00 4,00 1,00 2,00 3,00 (I) V AR00001 1,00 2,00 3,00 4,00 Mean Difference
(I-J) Std. Error Sig. Lower Bound Upper Bound 95% Confidence Interval
The mean difference is signific ant at the .05 level. *.
Lampiran 10. Uji beda rata-rata terhadap riap diameter dan tinggi pohon pada
kelerengan datar- landai (0%-15%) dan kelerengan agak curam-curam
(15%-30%)
z-Test: Two Sample for Means
Diameter 1,126 1,126
Mean 1,05832 1,0793
Known Variance 0,17530 0,1751
Observations 668 554
Hypothesized Mean Difference 0
z -0,87282
P(Z<=z) one-tail 0,19138
z Critical one-tail 1,64485
P(Z<=z) two-tail 0,38276
z Critical two-tail 1,95996
VARP slope1: 0,1695; slope2:0,1751
n-1>120 dan z value (α/2=0,025): 1,96 maka z hitung>z tab = -0,92 >-1,96 =Terima Ho
z-Test: Two Sample for Means
High 1,5 1,4
Mean 1,72021 1,731768953
Known Variance 0,04990 0,0464
Observations 668 554
Hypothesized Mean Difference 0
z -0,91829
P(Z<=z) one-tail 0,17923
z Critical one-tail 1,64485
P(Z<=z) two-tail 0,35847
z Critical two-tail 1,95996
VARP slope1: 0,0499; slope2:0,0464
Lampiran 11. Persamaan dalam pemodelan pertumbuhan tanaman Shorea leprosula
dan tegakan tinggal sistem TPTII
a. Model persamaan pertumbuhan tanaman
Daur tana man
Vo lu me_1(t) = Vo lu me_1(t - dt) + (Gro wth - Cut) * dtINIT Volu me_ 1 = -22.8698 INFLOWS:
Growth = if t ime <32 then(Kons_1*((time)^2)+Kons_2*(time)+Kons_3)(Kons_1*((time -1)^2)+Kons_2*(time -1)+Kons_3) else ((Kons_1*((time)^2)+Kons_2*(time )+Kons_3)-(Kons_1*((time -1)^2)+Kons_2*(time-1)+Kons_3)) * 81/ 100
OUTFLOWS:
Cut = if (Volu me_ 1>136.72) then Volu me_1 * 100/81 e lse 0 Vo lu me_2(t) = Vo lu me_2(t - dt) + (Cut) * dtINIT Vo lu me_2 = 0 INFLOWS:
Cut = if (Volu me_ 1>136.72) then Volu me_1 * 100/81 e lse 0 Kons_1 = -0.0105
Kons_2 = 5.0447 Kons_3 = -13.952
b. Model Persamaan dinamika tegakan hutan
K_Se ma i(t) = K_Se ma i(t - dt) + (Ingrowth - Upgro wth - Siklus_Tbg - Mati_Sema i) INFLOWS:
Ingrowth = (Penyedia_semai* La ju_ingrowth1)+(Penyedia_semai* Laju_ingro wth1*La ju_ingrowth2) OUTFLOWS:
Upgrowth = K_Se ma i*Pe luang_semai_pindah
Siklus_Tbg = if mod(t ime,26)=0 and time <27 then K_Se ma i e lse if mod(time ,66)=0 and time >26 then K_ Se mai else 0
Mati_Se mai = (K_ Se mai*Mati_a la m)+(K_Se ma i* Laju_Tbg*Efek_Tbg) Efek_Tbg = 0.0203 La ju_ingrowth1 = 0.55 La ju_ingrowth2 = 0.33 Mati_ala m = 0.1 Peluang_semai_pindah = 0.2167 Penyedia_semai = 9600 Ket:
- Satu pohon tebang berefek ke matian 2,03% (Sist dan Bertault 1998)
- Penyedia semai 9600 batang/th dengan kemat ian 55% awa l tahun dan 33% setelah 10 bu lan D_0(t) = D_0(t - dt) + (Growth1) * dtINIT D_0 = 0
INFLOWS:
Growth1 = if Simulation=1 then Sim25 else if Simulation=2 then Sim30 else
if Simulation=3 then Sim35 else 0
Vol_per_ha(t) = Vol_per_ha(t - dt) + (Growth2 - M) * dtINIT Vol_per_ha = 100 INFLOWS: Growth2 = Vol_per_ha*V OUTFLOWS: M = Vol_per_ha*MR B = 0.25*3.14*(0.01*D_0)^2 MR =
if time=16 then 0.3938 else 0
Sim25 = if time=24 then 0.0297*time^2+0.8208*time+0.3728 else 0 Sim30 = if time=30 then 0.0297*time^2+0.8208*time+0.3728 else 0 Sim35 = if time=34 then 0.0297*time^2+0.8208*time+0.3728 else 0 Simulation = 1
Lampiran 11 (Sambungan)
- Se mai mati ala mi 10% (Appanah 1990)
- La ju upgrowth semai (se mai pindah) 21,67% (Elias et al. 1997)
Ko m__K_semai(t) = Ko m__K_sema i(t - dt) + (Siklus_Tbg) * dtINIT Ko m__K_semai = 1 Kerapatan_Pancang(t) = Kerapatan_Pancang(t - dt) + (Ingrowth_pancang - Upgrowth_pancang - Siklus_Tbg - Mati_Pancang)
INFLOWS:
Ingrowth_pancang = Upgrowth__semai* Laju_ingrowth OUTFLOWS:
Upgrowth_pancang = Kerapatan_Pancang*Peluang_pancang_pindah Siklus_Tbg = if mod(t ime,26)=0 and time <27 then Ke rapatan_Pancang else if mod(time ,66)=0 and time > 26 then Kerapatan_Pancang else 0
Mati_Pancang = (Ke rapatan_Pancang*Mati_alam)+(La ju_Tbg*Efe k_Tbg*Kerapatan_Pancang) Ko m__K_pancang(t) = Ko m__K_pancang(t - dt) + (Siklus_Tbg) * dtINIT
Efek_Tbg = 0.0203 La ju_ingrowth = 0.25 Mati_ala m = 0.05 Peluang_pancang_pindah = 0.175 Upgrowth__semai = 4804.42 Ket:
- Satu pohon tebang berefek ke matian 2,03% (Sist dan Bertault 1998) - Pancang mati ala mi 5% (Appanah 1990)
- La ju upgrowth pancang (pancang pindah) 17,5% (Elias et al. 1997)
Kerapatan_tiang(t) = Kerapatan_tiang(t - dt) + (Ingrowth_tiang - Upgrowth_tiang - Siklus_Tbg - Mati_Tiang)
INFLOWS:
Ingrowth_tiang = Upgrowth__pancang*Laju_ingrowth OUTFLOWS:
Upgrowth_tiang = Ke rapatan_tiang*Peluang_tiang_pindah
Siklus_Tbg = if mod(t ime,26)=0 and time <27 then Ke rapatan_tiang else if mod(time ,66)=0 and time >26 then Ke rapatan_tiang else 0
Mati_Tiang = (Ke rapatan_tiang*Mati_alam)+(Ke rapatan_tiang*Laju_Tbg*Efe k_Tbg) Ko m__K_tiang(t) = Ko m__K_t iang(t - dt) + (Siklus_Tbg) * dtINIT
Efek_Tbg = 3.27 La ju_ingrowth = 0.25 Mati_ala m = 0.227
Peluang_tiang_pindah = 0.25 Upgrowth__pancang = 932.07
K_Phn(t) = K_ Phn(t - dt) + (Ingrowth_phn - Upgrowth_Phn - Siklus_Tbg - Mati_Phn) INFLOWS:
Ingrowth_phn = Upgrowth__Tiang*Laju_ingrowth OUTFLOWS:
Upgrowth_Phn = K_Phn*Peluang_phn_pindah
Siklus_Tbg = if mod(t ime,26)=0 and time <27 then K_Phn e lse if mod(time ,66)=0 and time >26 then K_ Phn else 0
Mati_Phn = (K_Phn*Mati_ala m)+(K_Phn*La ju_Tbg*Efek_Tbg) Efek_Tbg = 0.0203 (Sist dan Bertault 1998)
Mati_ala m = 0.079 (Appanah 1990)
Peluang_phn_pindah = 0.758 (Whit more 1975) Upgrowth__Tiang = 122.13
Ko m__K_Phn(t) = Ko m__ K_Phn(t - dt) + (Siklus_Tbg) * dtINIT Ko m__K_Phn = 1 Kerapatan_MT(t) = Kerapatan_MT(t - dt) + (Ingrowth - Mat i_MT - Siklus_tbg) * dtINIT Kerapatan_MT = 0.5656*(11.76+3.5)
INFLOWS:
Lampiran 11 (Sambungan)
OUTFLOWS:
Mati_MT = Kerapatan_MT*Mati_alam*Mati_efek_tebang Siklus_tbg = if Ke rapatan_MT>25 then Ke rapatan_MT else 0
Ko m_Phn_MT(t) = Ko m_Phn_MT(t - dt) + (Siklus_tbg) * dtINIT Ko m_Phn_MT = 0 INFLOWS: Mati_ala m = 1.2667-(0.0891* 45)+(0.0022* 45^2)-(0.000018*45^3)+2.0775-(0.1111*45)+(0.00186*45^2)-(0.0000091*45^3) Mati_efek_tebang = 0.005 Upgrowth = 0.5764+(0.0048*35)-(0.00066* 35^2)+(0.00000736*35^3)-(0.00023*34.5)+0.1729+(0.0765*35)-(0.0029*35^2)+(0.0000273* 35^3)-0.002*34.5 INFLOWS:
Cut4049[Me ranti] = if mod(time,30)=0 then St4049[Meranti] else 0
Cut4049[Dipt_Non_Meranti] = if mod(time,30)=0 then St4049[Dipt_Non_Meranti] else 0 Cut4049[R_ Ca mpuran] = if mod(time,30)=0 then St4049[R_Ca mpuran] else 0
Cut4049[Kayu_Indah] = if mod (time ,30)=0 then St4049[Kayu_Indah] else 0 Cut4049[Ko mersia l_ Lain ] = if mod(t ime,30)=0 then St4049[Ko mersia l_ Lain] else 0 INFLOWS:
St1019[Meranti](t ) = St1019[Meranti](t - dt) + (Ingrowth[Meranti] - M 1019[Me ranti] - Up G1[Meranti]) * dtINIT St 1019[Meranti] = 130.59
St1019[Dipt_Non_Meranti](t) = St 1019[Dipt_Non_Meranti](t - dt) + (Ingrowth[Dipt_Non_Meranti] - M1019[Dipt_Non_Meranti] - Up G1[Dipt_Non_Meranti]) * dtINIT St1019[Dipt_Non_Meranti] = 36.08
St1019[R_ Ca mpuran](t) = St1019[R_Ca mpuran](t - dt) + (Ingrowth[R_ Ca mpuran] - M1019[R_Ca mpu ran] - Up G1[R_Ca mpuran]) * dtINIT St1019[R_Ca mpuran] = 14.51 St1019[Kayu_Indah](t) = St1019[Kayu_Indah](t - dt) + (Ingrowth[Kayu_Indah] - M1019[Kayu_Indah] - Up G1[Kayu_Indah]) * dtINIT St 1019[Kayu_Indah] = 1.57
St1019[Ko mersia l_ Lain](t) = St1019[Ko mersia l_ Lain ](t - dt) + (Ingrowth[Ko me rsial_ La in] - M1019[Ko mersia l_La in] - Up G1[Ko mersia l_ Lain]) * dtINIT St1019[Ko me rsial_ La in] = 85.49 INFLOWS:
Ingrowth[Meranti] = 12.3906-0.3198*N[Me ranti]+0.3947* B
Ingrowth[Dipt_Non_Meranti] = 2.7261+0.0289*N[Dipt_Non_Meranti]-0.1396*B Ingrowth[R_ Ca mpuran] = 0.583+0.0384* N[R_ Ca mpuran]-0.0502*B
Ingrowth[Kayu_Indah] = 0.583+0.0384*N[Kayu_Indah]-0.0502* B
Ingrowth[Ko mersia l_ Lain] = 76.2581-0.4653*N[Ko mersial_ La in]-1.6808* B OUTFLOWS:
M1019[Meranti] = if t ime =0 then St1019[Meranti]*CE1019[Meranti] else St1019[Meranti]*MR1019[Me ranti]
M1019[Dipt_Non_Meranti] = if t ime =0 then
St1019[Dipt_Non_Meranti]*CE1019[Dipt_Non_Meranti] else St1019[Dipt_Non_Meranti]*MR1019[Dipt_Non_Meranti]
M1019[R_Ca mpu ran] = if t ime=0 then St 1019[R_Ca mpu ran]*CE1019[R_ Ca mpuran] e lse St1019[R_ Ca mpuran]*MR1019[R_ Ca mpuran]
M1019[Kayu_Indah] = if time=0 then St1019[Kayu_Indah]*CE1019[Kayu_Indah] else St1019[Kayu_Indah]*MR1019[Kayu_Indah]
M1019[Ko mersia l_La in] = if time =0 then St1019[Ko me rsial_ La in]*CE1019[Ko me rsial_ La in] e lse St1019[Ko mersia l_ Lain]*M R1019[Ko mersial_ La in]
Up G1[Meranti] = 0.1729+0.0765*15-0.0029*15^2+0.0000273*15^3-0.002* B*St 1019[Meranti] Up G1[Dipt_Non_Meranti] = 0.5764+0.0048*15-0.00066*15^2+0.00000736* 15^3-0.00023* B*St1019[Dipt_Non_Meranti] Up G1[R_ Ca mpuran] = 7.1901-0.4323*15+0.0088*15^2-0.000059* 15^3-0.00075* B*St1019[R_Ca mpuran] Up G1[Kayu_Indah] = 7.1901-0.4323* 15+0.0088*15^2-0.000059*15^3-0.00075* B*St1019[Kayu_Indah]
Lampiran 11 (Sambungan)
Up G1[Ko mersia l_La in] = 7.1901-0.4323* 15+0.0088* 15^2-0.000059*15^3-0.00075* B*St1019[Ko me rsial_ La in]
St2029[Meranti](t ) = St2029[Meranti](t - dt) + (Up G1[Me ranti] - Up G2[Meranti] - M 2029[Meranti]) * dtINIT St2029[Meranti] = 47.84
St2029[Dipt_Non_Meranti](t) = St 2029[Dipt_Non_Meranti](t - dt) + (Up G1[Dipt_Non_Meranti] - Up G2[Dipt_Non_Meranti] - M2029[Dipt_Non_Meranti]) * dtINIT St2029[Dipt_Non_Meranti] = 17.25
St2029[R_ Ca mpuran](t) = St2029[R_Ca mpuran](t - dt) + (Up G1[R_ Ca mpuran] - Up G2[R_ Ca mpuran] - M2029[R_Ca mpuran]) * dtINIT St2029[R_Ca mpuran] = 7.06
St2029[Kayu_Indah](t) = St2029[Kayu_Indah](t - dt) + (Up G1[Kayu_Indah] - Up G2[Kayu_Indah] - M2029[Kayu_Indah]) * dtINIT St2029[Kayu_Indah] = 1.96
St2029[Ko mersia l_ Lain](t) = St2029[Ko mersia l_ Lain ](t - dt) + (Up G1[Ko mersia l_ Lain] - Up G2[Ko mersia l_La in] - M 2029[Ko mersia l_ Lain]) * dtINIT St2029[Ko me rsial_ La in] = 3.53 INFLOWS: Up G1[Meranti] = 0.1729+0.0765*15-0.0029*15^2+0.0000273*15^3-0.002* B*St 1019[Meranti] Up G1[Dipt_Non_Meranti] = 0.5764+0.0048*15-0.00066*15^2+0.00000736* 15^3-0.00023* B*St1019[Dipt_Non_Meranti] Up G1[R_ Ca mpuran] = 7.1901-0.4323*15+0.0088*15^2-0.000059* 15^3-0.00075* B*St1019[R_Ca mpuran] Up G1[Kayu_Indah] = 7.1901-0.4323* 15+0.0088*15^2-0.000059*15^3-0.00075* B*St1019[Kayu_Indah]
Up G1[Ko mersia l_La in] = 7.1901-0.4323* 15+0.0088* 15^2-0.000059*15^3-0.00075* B*St1019[Ko me rsial_ La in]
OUTFLOWS: Up G2[Meranti] = 0.1729+0.0765*25-0.0029*25^2+0.0000273*25^3-0.002* B*St 2029[Meranti] Up G2[Dipt_Non_Meranti] = 0.5764+0.0048*25-0.00066*25^2+0.00000736* 25^3-0.00023* B*St2029[Dipt_Non_Meranti] Up G2[R_ Ca mpuran] = 7.1901-0.4323*25+0.0088*25^2-0.000059* 25^3-0.00075* B*St2029[R_Ca mpuran] Up G2[Kayu_Indah] = 7.1901-0.4323* 25+0.0088*25^2-0.000059*25^3-0.00075* B*St2029[Kayu_Indah]
Up G2[Ko mersia l_La in] = 7.1901-0.4323* 25+0.0088* 25^2-0.000059*25^3-0.00075* B*St2029[Ko me rsial_ La in]
M2029[Meranti] = if t ime =0 then St2029[Meranti]*CE2029[Meranti] else St2029[Meranti]*MR2029[Me ranti]
M2029[Dipt_Non_Meranti] = if t ime =0 then
St2029[Dipt_Non_Meranti]*CE2029[Dipt_Non_Meranti] else St2029[Dipt_Non_Meranti]*MR2029[Dipt_Non_Meranti]
M2029[R_Ca mpu ran] = if t ime=0 then St 2029[R_Ca mpu ran]*CE2029[R_ Ca mpuran] e lse St2029[R_ Ca mpuran]*MR2029[R_ Ca mpuran]
M2029[Kayu_Indah] = if time=0 then St2029[Kayu_Indah]*CE2029[Kayu_Indah] else St2029[Kayu_Indah]*MR2029[Kayu_Indah]
M2029[Ko mersia l_La in] = if time =0 then St2029[Ko me rsial_ La in]*CE2029[Ko me rsial_ La in] e lse St2029[Ko mersia l_ Lain]*M R2029[Ko mersial_ La in]
St3039[Meranti](t ) = St3039[Meranti](t - dt) + (Up G2[Me ranti] - Up G3[Meranti] - M 3039[Meranti]) * dtINIT St3039[Meranti] = 23.92
St3039[Dipt_Non_Meranti](t) = St 3039[Dipt_Non_Meranti](t - dt) + (Up G2[Dipt_Non_Meranti] - Up G3[Dipt_Non_Meranti] - M3039[Dipt_Non_Meranti]) * dtINIT St3039[Dipt_Non_Meranti] = 8.63
St3039[R_ Ca mpuran](t) = St3039[R_Ca mpuran](t - dt) + (Up G2[R_ Ca mpuran] - Up G3[R_ Ca mpuran] - M3039[R_Ca mpuran]) * dtINIT St3039[R_Ca mpuran] = 7.84
St3039[Kayu_Indah](t) = St3039[Kayu_Indah](t - dt) + (Up G2[Kayu_Indah] - Up G3[Kayu_Indah] - M3039[Kayu_Indah]) * dtINIT St3039[Kayu_Indah] = 0.39
St3039[Ko mersia l_ Lain](t) = St3039[Ko mersia l_ Lain ](t - dt) + (Up G2[Ko mersia l_ Lain] - Up G3[Ko mersia l_La in] - M 3039[Ko mersia l_ Lain]) * dtINIT St3039[Ko me rsial_ La in] = 13.33
Lampiran 11 (Sambungan)
INFLOWS: Up G2[Meranti] = 0.1729+0.0765*25-0.0029*25^2+0.0000273*25^3-0.002* B*St 2029[Meranti] Up G2[Dipt_Non_Meranti] = 0.5764+0.0048*25-0.00066*25^2+0.00000736* 25^3-0.00023* B*St2029[Dipt_Non_Meranti] Up G2[R_ Ca mpuran] = 7.1901-0.4323*25+0.0088*25^2-0.000059* 25^3-0.00075* B*St2029[R_Ca mpuran] Up G2[Kayu_Indah] = 7.1901-0.4323* 25+0.0088*25^2-0.000059*25^3-0.00075* B*St2029[Kayu_Indah]Up G2[Ko mersia l_La in] = 7.1901-0.4323* 25+0.0088* 25^2-0.000059*25^3-0.00075* B*St2029[Ko me rsial_ La in]
OUTFLOWS: Up G3[Meranti] = 0.1729+0.0765*35-0.0029*35^2+0.0000273*35^3-0.002* B*St 3039[Meranti] Up G3[Dipt_Non_Meranti] = 0.5764+0.0048*35-0.00066*35^2+0.00000736* 35^3-0.00023* B*St3039[Dipt_Non_Meranti] Up G3[R_ Ca mpuran] = 7.1901-0.4323*35+0.0088*35^2-0.000059* 35^3-0.00075* B*St3039[R_Ca mpuran] Up G3[Kayu_Indah] = 7.1901-0.4323* 35+0.0088*35^2-0.000059*35^3-0.00075* B*St3039[Kayu_Indah]
Up G3[Ko mersia l_La in] = 7.1901-0.4323* 35+0.0088* 35^2-0.000059*35^3-0.00075* B*St3039[Ko me rsial_ La in]
M3039[Meranti] = if t ime =0 then St3039[Meranti]*CE3039[Meranti] else St3039[Meranti]*MR3039[Me ranti]
M3039[Dipt_Non_Meranti] = if t ime =0 then
St3039[Dipt_Non_Meranti]*CE3039[Dipt_Non_Meranti] else St3039[Dipt_Non_Meranti]*MR3039[Dipt_Non_Meranti]
M3039[R_Ca mpu ran] = if t ime=0 then St 3039[R_Ca mpu ran]*CE3039[R_ Ca mpuran] e lse St3039[R_ Ca mpuran]*MR3039[R_ Ca mpuran]
M3039[Kayu_Indah] = if time=0 then St3039[Kayu_Indah]*CE3039[Kayu_Indah] else St3039[Kayu_Indah]*MR3039[Kayu_Indah]
M3039[Ko mersia l_La in] = if time =0 then St3039[Ko me rsial_ La in]*CE3039[Ko me rsial_ La in] e lse St3039[Ko mersia l_ Lain]*M R3039[Ko mersial_ La in]
St4049[Meranti](t ) = St4049[Meranti](t - dt) + (Up G3[Me ranti] - Up G4[Meranti] - M 4049[Meranti] - Cut4049[Me ranti]) * dtINIT St4049[Me ranti] = 11.76
St4049[Dipt_Non_Meranti](t) = St 4049[Dipt_Non_Meranti](t - dt) + (Up G3[Dipt_Non_Meranti] - Up G4[Dipt_Non_Meranti] - M4049[Dipt_Non_Meranti] - Cut4049[Dipt_Non_Meranti]) * dtINIT St4049[Dipt_Non_Meranti] = 3.53
St4049[R_ Ca mpuran](t) = St4049[R_Ca mpuran](t - dt) + (Up G3[R_ Ca mpuran] - Up G4[R_ Ca mpuran] - M4049[R_Ca mpuran] - Cut4049[R_Ca mpuran]) * dtINIT St4049[R_ Ca mpuran] = 1.96
St4049[Kayu_Indah](t) = St4049[Kayu_Indah](t - dt) + (Up G3[Kayu_Indah] - Up G4[Kayu_Indah] - M4049[Kayu_Indah] - Cut4049[Kayu_Indah]) * dtINIT St4049[Kayu_Indah] = 0.39
St4049[Ko mersia l_ Lain](t) = St4049[Ko mersia l_ Lain ](t - dt) + (Up G3[Ko mersia l_ Lain] - Up G4[Ko mersia l_La in] - M 4049[Ko mersia l_ Lain] - Cut4049[Ko mersial_ La in]) * dtINIT St4049[Ko mersia l_ Lain] = 7.45
INFLOWS: Up G3[Meranti] = 0.1729+0.0765*35-0.0029*35^2+0.0000273*35^3-0.002* B*St 3039[Meranti] Up G3[Dipt_Non_Meranti] = 0.5764+0.0048*35-0.00066*35^2+0.00000736* 35^3-0.00023* B*St3039[Dipt_Non_Meranti] Up G3[R_ Ca mpuran] = 7.1901-0.4323*35+0.0088*35^2-0.000059* 35^3-0.00075* B*St3039[R_Ca mpuran] Up G3[Kayu_Indah] = 7.1901-0.4323* 35+0.0088*35^2-0.000059*35^3-0.00075* B*St3039[Kayu_Indah]
Up G3[Ko mersia l_La in] = 7.1901-0.4323* 35+0.0088* 35^2-0.000059*35^3-0.00075* B*St3039[Ko me rsial_ La in]
Lampiran 11 (Sambungan)
OUTFLOWS: Up G4[Meranti] = 0.1729+0.0765*45-0.0029*45^2+0.0000273*45^3-0.002* B*St 4049[Meranti] Up G4[Dipt_Non_Meranti] = 0.5764+0.0048*45-0.00066*45^2+0.00000736* 45^3-0.00023* B*St4049[Dipt_Non_Meranti] Up G4[R_ Ca mpuran] = 7.1901-0.4323*45+0.0088*45^2-0.000059* 45^3-0.00075* B*St4049[R_Ca mpuran] Up G4[Kayu_Indah] = 7.1901-0.4323* 45+0.0088*45^2-0.000059*45^3-0.00075* B*St4049[Kayu_Indah]Up G4[Ko mersia l_La in] = 7.1901-0.4323* 45+0.0088* 45^2-0.000059*45^3-0.00075* B*St4049[Ko me rsial_ La in]
M4049[Meranti] = if t ime =0 then St4049[Meranti]*CE4049[Meranti] else St4049[Meranti]*MR4049[Me ranti]
M4049[Dipt_Non_Meranti] = if t ime =0 then
St4049[Dipt_Non_Meranti]*CE4049[Dipt_Non_Meranti] else St4049[Dipt_Non_Meranti]*MR4049[Dipt_Non_Meranti]
M4049[R_Ca mpu ran] = if t ime=0 then St 4049[R_Ca mpu ran]*CE4049[R_ Ca mpuran] e lse St4049[R_ Ca mpuran]*MR4049[R_ Ca mpuran]
M4049[Kayu_Indah] = if time=0 then St4049[Kayu_Indah]*CE4049[Kayu_Indah] else St4049[Kayu_Indah]*MR4049[Kayu_Indah]
M4049[Ko mersia l_La in] = if time =0 then St4049[Ko me rsial_ La in]*CE4049[Ko me rsial_ La in] e lse St4049[Ko mersia l_ Lain]*M R4049[Ko mersial_ La in]
Cut4049[Me ranti] = if mod(time,30)=0 then St4049[Meranti] else 0
Cut4049[Dipt_Non_Meranti] = if mod(time,30)=0 then St4049[Dipt_Non_Meranti] else 0 Cut4049[R_ Ca mpuran] = if mod(time,30)=0 then St4049[R_Ca mpuran] else 0
Cut4049[Kayu_Indah] = if mod (time ,30)=0 then St4049[Kayu_Indah] else 0 Cut4049[Ko mersia l_ Lain ] = if mod(t ime,30)=0 then St4049[Ko mersia l_ Lain] else 0 INFLOWS: Up G4[Meranti] = 0.1729+0.0765*45-0.0029*45^2+0.0000273*45^3-0.002* B*St 4049[Meranti] Up G4[Dipt_Non_Meranti] = 0.5764+0.0048*45-0.00066*45^2+0.00000736* 45^3-0.00023* B*St4049[Dipt_Non_Meranti] Up G4[R_ Ca mpuran] = 7.1901-0.4323*45+0.0088*45^2-0.000059* 45^3-0.00075* B*St4049[R_Ca mpuran] Up G4[Kayu_Indah] = 7.1901-0.4323* 45+0.0088*45^2-0.000059*45^3-0.00075* B*St4049[Kayu_Indah]
Up G4[Ko mersia l_La in] = 7.1901-0.4323* 45+0.0088* 45^2-0.000059*45^3-0.00075* B*St4049[Ko me rsial_ La in]
OUTFLOWS: Up G5[Meranti] = 0.1729+0.0765*55-0.0029*55^2+0.0000273*55^3-0.002* B*St 5059[Meranti] Up G5[Dipt_Non_Meranti] = 0.5764+0.0048*55-0.00066*55^2+0.00000736* 55^3-0.00023* B*St5059[Dipt_Non_Meranti] Up G5[R_ Ca mpuran] = 7.1901-0.4323*55+0.0088*55^2-0.000059* 55^3-0.00075* B*St5059[R_Ca mpuran] Up G5[Kayu_Indah] = 7.1901-0.4323* 55+0.0088*55^2-0.000059*55^3-0.00075* B*St5059[Kayu_Indah]
Up G5[Ko mersia l_La in] = 7.1901-0.4323* 55+0.0088* 55^2-0.000059*55^3-0.00075* B*St5059[Ko me rsial_ La in]
INFLOWS: Up G5[Meranti] = 0.1729+0.0765*55-0.0029*55^2+0.0000273*55^3-0.002* B*St 5059[Meranti] Up G5[Dipt_Non_Meranti] = 0.5764+0.0048*55-0.00066*55^2+0.00000736* 55^3-0.00023* B*St5059[Dipt_Non_Meranti] Up G5[R_ Ca mpuran] = 7.1901-0.4323*55+0.0088*55^2-0.000059* 55^3-0.00075* B*St5059[R_Ca mpuran] Up G5[Kayu_Indah] = 7.1901-0.4323* 55+0.0088*55^2-0.000059*55^3-0.00075* B*St5059[Kayu_Indah]
Up G5[Ko mersia l_La in] = 7.1901-0.4323* 55+0.0088* 55^2-0.000059*55^3-0.00075* B*St5059[Ko me rsial_ La in]
Lampiran 11 (Sambungan)
B = B_DnM+B_ KI+B_ KL+B_M+B_ RC B_DnM = St1019[Dipt_Non_Meranti]*0.0177+St 2029[Dipt_Non_Meranti]*0.0491+St3039[Dipt_Non_Meranti ]*0.0962+St4049[Dipt_Non_Meranti]*0.159+St5059[Dipt_Non_Meranti]*0.2375+St60up[Dipt_Non _Meranti]*0.3317 B_KI = St1019[Kayu_Indah]*0.0177+St2029[Kayu_Indah]*0.0491+St 3039[Kayu_Indah]*0.0962+St4049[Ka yu_Indah]*0.159+St 5059[Kayu_Indah]*0.2375+St60up[Kayu_Indah]*0.3317 B_KL =St1019[Ko mersia l_ Lain]* 0.0177+St2029[Ko me rsial_ La in]*0.0491+St3039[Ko me rsial_ La in]*0.0962 +St4049[Ko me rsial_ La in]*0.159+St5059[Ko mersia l_ Lain]* 0.2375+St60up[Ko me rsial_ La in]*0.3317 B_M =
St1019[Meranti]*0.0177+St 2029[Meranti]*0.0491+St3039[Meranti]*0.0962+St4049[Meranti]* 0.159 +St5059[Meranti]* 0.2375+St60up[Meranti]* 0.3317
B_RC =
St1019[R_ Ca mpuran]*0.0177+St2029[R_Ca mpuran ]*0.0491+St3039[R_Ca mpuran]* 0.0962+St4049 [R_ Ca mpuran]*0.159+St5059[R_ Ca mpuran]*0.2375+St 60up[R_ Ca mpuran]*0.3317
MR1019[Meranti] = 1.2667-0.0891*15+0.0022*15^2-0.000018* 15^3
MR1019[Dipt_Non_Meranti] = 2.0775-0.1111*15+0.00186* 15^2-0.0000091*15^3 MR1019[R_Ca mpuran] = 5.1179-0.2896* 15+0.0057*15^2-0.000038*15^3 MR1019[Kayu_Indah] = 5.1179-0.2896* 15+0.0057* 15^2-0.000038*15^3 MR1019[Ko mersial_ La in] = 5.1179-0.2896*15+0.0057* 15^2-0.000038*15^3 MR2029[Meranti] = 1.2667-0.0891*25+0.0022*25^2-0.000018* 25^3
MR2029[Dipt_Non_Meranti] = 2.0775-0.1111*25+0.00186* 25^2-0.0000091*25^3 MR2029[R_Ca mpuran] = 5.1179-0.2896* 25+0.0057*25^2-0.000038*25^3 MR2029[Kayu_Indah] = 5.1179-0.2896* 25+0.0057* 25^2-0.000038*25^3 MR2029[Ko mersial_ La in] = 5.1179-0.2896*25+0.0057* 25^2-0.000038*25^3 MR3039[Meranti] = 1.2667-0.0891*35+0.0022*35^2-0.000018* 35^3
MR3039[Dipt_Non_Meranti] = 2.0775-0.1111*35+0.00186* 35^2-0.0000091*35^3 MR3039[R_Ca mpuran] = 5.1179-0.2896* 35+0.0057*35^2-0.000038*35^3 MR3039[Kayu_Indah] = 5.1179-0.2896* 35+0.0057* 35^2-0.000038*35^3 MR3039[Ko mersial_ La in] = 5.1179-0.2896*35+0.0057* 35^2-0.000038*35^3 MR4049[Meranti] = 1.2667-0.0891*45+0.0022*45^2-0.000018* 45^3
MR4049[Dipt_Non_Meranti] = 2.0775-0.1111*45+0.00186* 45^2-0.0000091*45^3 MR4049[R_Ca mpuran] = 5.1179-0.2896* 45+0.0057*45^2-0.000038*45^3 MR4049[Kayu_Indah] = 5.1179-0.2896* 45+0.0057* 45^2-0.000038*45^3 MR4049[Ko mersial_ La in] = 5.1179-0.2896*45+0.0057* 45^2-0.000038*45^3 N[Meranti] =
St1019[Meranti]+St2029[Meranti]+St 3039[Meranti]+St4049[Meranti]+St 5059[Meranti]+St60up[Mer anti]
N[Dipt_Non_Meranti] =
St1019[Dipt_Non_Meranti]+St2029[Dipt_Non_Meranti]+St 3039[Dipt_Non_Meranti]+St4049[Dipt_ Non_Meranti]+St 5059[Dipt_Non_Meranti]+St60up[Dipt_Non_Meranti]
N[R_ Ca mpuran] =
St1019[R_ Ca mpuran]+St2029[R_ Ca mpuran]+St3039[R_Ca mpuran ]+St 4049[R_ Ca mpuran]+St5059[ R_Ca mpu ran]+St60up[R_ Ca mpuran]
N[Kayu_Indah] =
St1019[Kayu_Indah]+St2029[Kayu_Indah]+St3039[Kayu_Indah]+St4049[Kayu_Indah]+St5059[Kay u_Indah]+St60up[Kayu_Indah]
N[Ko mersia l_La in] =
St1019[Ko mersia l_ Lain]+St 2029[Ko mersia l_ Lain]+St 3039[Ko mersia l_La in]+St4049[Ko mersia l_La i n]+St5059[Ko mersial_ La in]+St60up[Ko me rsial_ La in]
TabVo l45[Meranti] = 2.0192
TabVo l45[Dipt_Non_Meranti] = 1.7352 TabVo l45[R_ Ca mpuran] = 2.0526 TabVo l45[Kayu_Indah] = 2.0526 TabVo l45[Ko me rsial_ La in] = 2.0526 TabVo l55[Meranti] = 3.3763
Lampiran 11 (Sambungan)
TabVo l55[Dipt_Non_Meranti] = 2.8161 TabVo l55[R_ Ca mpuran] = 3.4856 TabVo l55[Kayu_Indah] = 3.4856 TabVo l55[Ko me rsial_ La in] = 3.4856 TabVo l65[Meranti] = 5.1797
TabVo l65[Dipt_Non_Meranti] = 4.2143 TabVo l65[R_ Ca mpuran] = 5.4165 TabVo l65[Kayu_Indah] = 5.4165 TabVo l65[Ko me rsial_ La in] = 5.4165
Vo l4049[Meranti] = N4049[Meranti]*Tab Vo l45[Meranti]
Vo l4049[Dipt_Non_Meranti] = N4049[Dipt_Non_Meranti]*Tab Vol45[Dipt_Non_Meranti] Vo l4049[R_ Ca mpuran] = N4049[R_Ca mpuran]*Tab Vo l45[R_ Ca mpuran]
Vo l4049[Kayu_Indah] = N4049[Kayu_Indah]*TabVol45[Kayu_Indah]
Vo l4049[Ko mersia l_ Lain] = N4049[Ko mersia l_ Lain]*Tab Vo l45[Ko me rsial_ La in] Cutting Effect
CE1019[Meranti] = Total_tebang[Meranti]*0.0156
CE1019[Dipt_Non_Meranti] = Total_tebang[Dipt_Non_Meranti]*0.0156 CE1019[R_ Ca mpuran] = Total_tebang[R_Ca mpuran]* 0.0156
CE1019[Kayu_Indah] = Total_tebang[Kayu_Indah]*0.0156 CE1019[Ko mersia l_ Lain] = Total_tebang[Komersia l_ Lain]* 0.0156 CE2029[Meranti] = Total_tebang[Meranti]*0.0133
CE2029[Dipt_Non_Meranti] = Total_tebang[Dipt_Non_Meranti]*0.0133 CE2029[R_ Ca mpuran] = Total_tebang[R_Ca mpuran]* 0.0133
CE2029[Kayu_Indah] = Total_tebang[Kayu_Indah]*0.0133 CE2029[Ko mersia l_ Lain] = Total_tebang[Komersia l_ Lain]* 0.0133 CE3039[Meranti] = Total_tebang[Meranti]*0.0132
CE3039[Dipt_Non_Meranti] = Total_tebang[Dipt_Non_Meranti]*0.0132 CE3039[R_ Ca mpuran] = Total_tebang[R_Ca mpuran]* 0.0132
CE3039[Kayu_Indah] = Total_tebang[Kayu_Indah]*0.0132 CE3039[Ko mersia l_ Lain] = Total_tebang[Komersia l_ Lain]* 0.0132 CE4049[Meranti] = Total_tebang[Meranti]*0.00956
CE4049[Dipt_Non_Meranti] = Total_tebang[Dipt_Non_Meranti]*0.00956 CE4049[R_ Ca mpuran] = Total_tebang[R_Ca mpuran]* 0.00956
CE4049[Kayu_Indah] = Total_tebang[Kayu_Indah]*0.00956 CE4049[Ko mersia l_ Lain] = Total_tebang[Komersia l_ Lain]* 0.00956
N4049[Meranti](t) = N4049[Meranti](t - dt) + (Cut4049[Meranti]) * dtINIT N4049[Me ranti] = 0 N4049[Dipt_Non_Meranti](t) = N4049[Dipt_Non_Meranti](t - dt) + (Cut4049[Dipt_Non_Meranti]) * dtINIT N4049[Dipt_Non_Meranti] = 0
N4049[R_Ca mpuran](t) = N4049[R_Ca mpuran](t - dt) + (Cut4049[R_ Ca mpuran]) * dtINIT N4049[R_Ca mpuran] = 0
N4049[Kayu_Indah](t) = N4049[Kayu_Indah](t - dt) + (Cut4049[Kayu_Indah]) * dtINIT N4049[Kayu_Indah] = 0
N4049[Ko me rsial_ La in](t) = N4049[Ko mersia l_ Lain ](t - dt) + (Cut4049[Ko me rsial_ La in]) * dtINIT N4049[Ko me rsial_ La in] = 0
Total_tebang[Meranti] = 4.138
Total_tebang[Dipt_Non_Meranti] = 4.138 Total_tebang[R_Ca mpuran] = 4.138 Total_tebang[Kayu_Indah] = 4.138 Total_tebang[Ko mersial_ La in] = 4.138 Total_Pohon_Tebang[Kelompok_Jen is] =
N4049[Ke lo mpok_Jenis]+N5059[Kelo mpok_Jen is]+N60up[Ke lo mpok_Jenis] Total_Vo lu me_Tebang[Kelo mpok_Jenis] =
Lampiran 12. Validasi model pertumbuhan tegakan hutan bekas tebangan
menggunakan uji Chi Kwadrat
Perbandingan data hasil pengukuran (PUP) dengan hasil pemodelan selama 7 tahun
Catatan:
Validasi model menggunakan data kerapatan pohon per ha dari pengamatan
PUP hutan bekas tebangan blok 1997 tahun pengukuran 1998 sampai 2005
No Kelompok Kelas Data PUP Hasil model (O-E) (O-E)2 (O-E)2/E Jumlah
pohon diameter (O) (E) data
1 10-19 2,550 4,284 -1,734 3,007 0,702 1 2 20-29 1,871 0,707 1,164 1,354 1,915 2 3Meranti 30-39 2,345 1,257 1,088 1,184 0,942 3 4 40-49 1,581 1,145 0,437 0,191 0,167 4 5 50-59 1,225 0,975 0,250 0,063 0,064 5 6 60 up 1,581 1,179 0,402 0,162 0,137 6 7 10-19 0,707 1,664 -0,957 0,916 0,551 7 8Dipt non 20-29 0,707 0,922 -0,215 0,046 0,050 8 9meranti 30-39 1,581 1,109 0,472 0,223 0,201 9 10 40-49 1,225 1,118 0,107 0,011 0,010 10 11 50-59 1,225 0,894 0,330 0,109 0,122 11 12 60 up 0,707 0,860 -0,153 0,023 0,027 12 13 10-19 1,225 0,707 0,518 0,268 0,379 13 14Komersial 20-29 1,225 0,707 0,518 0,268 0,379 14 15lain ditebang 30-39 1,581 1,304 0,277 0,077 0,059 15 16 40-49 1,225 1,225 0,000 0,000 0,000 16 17 50-59 1,225 0,707 0,518 0,268 0,379 17 18 60 up 0,707 1,661 -0,954 0,911 0,548 18 19 10-19 1,225 0,707 0,518 0,268 0,379 19 20Komersial 20-29 1,581 1,425 0,156 0,024 0,017 20 21lain tidak 30-39 1,581 1,510 0,071 0,005 0,003 21 22ditebang 40-49 2,345 0,943 1,402 1,965 2,083 22 23 50-59 2,121 0,707 1,414 2,000 2,828 23 24 60 up 1,225 1,273 -0,048 0,002 0,002 24 Jumlah 11,94
Keterangan = O: Observed (diamati), E: Expected (diharapkan) Dengan α = 0,05 dan dk=23 maka tabel אx20,95 = 35,2
Kesimpulan: Terima Ho = data pengamatan dan harapan tidak berarti = homogen
0,0 0,5 1,0 1,5 2,0 2,5 3,0 3,5 4,0 4,5 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24
Kelom pok data
Ker
apat
an (
N
/ha)
Lampiran 13. S ifat fisik da n kimia tanah pada lokasi penelitian
a. Sifat fisik tanah
b. Sifat kimia tanah
Lokasi/
Kedalaman
Warna
Tekstur
Kelas tekstur
Struktur
Peruntukan
horison
(m)
(lembab)
% lempung % debu
% pasir
lahan
1
2
3
4
5
6
7
8
9
JT/
A
0-25
7,5 YR 4/4
28,93
10,65
60,42 Geluh lempung pasiran - Gumpal dengan Tanaman
dark brown
(Sandy clay loam)
agregat kurang keras
AB
26-55
10 YR 4/6
64,26
15,5
20,24 Lempung (clay)
- Permeabilitas Tanaman
yellowish brown
rendah
keras
B
56-100+ 10 YR 5/6
72,93
12,4
14,67 Lempung (clay)
Tanaman
yellowish brown
keras
JA/
A
0-25
7,5 YR 5/8
32,06
11,14
56,8 Geluh lempung pasiran - Gumpal dengan Tanaman
strong brown
(Sandy clay loam)
agregat kurang keras
AB
26-55
10 YR 5/6
67
14,5
18,5 Lempung (clay)
- Permeabilitas Tanaman
yellowish brown
rendah
keras
B
56-100+ 10 YR 6/8
73,64
12,98
13,38 Lempung (clay)
Tanaman
brownish yellow
keras
Lokasi/ pH BO N P Zn Cu Mn Fe K Na Ca Mg KTK H+ Al3+
horison H2O (%) Tersedia (ppm) Tersedia (me/100 gr) me/100gr me% ppm
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 JT/ A 4,83 21,57 50 4,01 0,1 0,8 31,7 0,1 0,34 0,48 0,41 6,5 0,41 813,1 AB 3,88 10,32 21 2,78 0,1 0,24 0,43 0,39 6,64 1,21 B 3,36 4,05 11 0,23 0,1 0,35 0,37 0,3 4,95 0,99 JA/ A 3,46 35,77 73 5,44 1,11 5,82 35,8 0,15 0,29 0,45 0,41 13,26 0,46 799 AB 3,58 15,09 36 3,95 0,14 0,19 0,39 0,49 12,46 1,14 B 3,54 4,21 21 3,67 0,1 0,21 0,27 0,32 13,11 1,01
Lampiran 15. Peta loka si penelitian di IUPHHK PT Gunung Meranti
PETA LOKASI PENELITIAN DI
PT GUNUNG MERANTI PROVINSI KALIMAN TAN TENG AH
Luas: 95.265 Ha
Legenda:
: Blok Sistem TPTI : Blok Sistem TPTII : Petak Ukur Permanen : Tegakan benih : Plasma nutf ah : Hutan kerangas : Hutan lindung : Jalan angkutan : Sungai Plot penelitian sistem TPTII PT GM
PUP Sistem TPTI Penunjang data penelitian tegakan
tinggal Tanaman meranti tahun
1994 dan 1999 Penunjang data tanaman
Lampiran 18. Tanaman dan tegakan tinggal di plot penelitian PT Gunung Meranti
Keterangan gambar:
1. Tanaman Shorea leprosula umur 1 tahun
2. Tanaman Shorea leprosula umur 11 tahun
3. Tanaman Shorea leprosula umur 16 tahun
4. Tegakan tinggal dalam jalur antara
2 1
4 3