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LAMPIRAN
Lampiran1.Hasilanalisisstatistik tinggitanamanumur 1,2,3 MST. Tests of Between-Subjects Effects
Dependent variabel:Tinggitanaman1 MST
Source
Type III Sum of
Squares df Mean Square F Sig.
Corrected Model 5373.754a 13 413.366 1.173 .358 Intercept 9028.167 1 9028.167 25.628 .000 Perlkn 3926.170 11 356.925 1.013 .467 Blok 1447.584 2 723.792 2.055 .152 Error 7750.109 22 352.278 Total 22152.030 36 Corrected Total 13123.863 35
a. R Squared = ,409 (Adjusted R Squared = ,061)
Tests of Between-Subjects Effects Dependent variabel:Tingitanaman 2 MST
Source
Type III Sum of
Squares df Mean Square F Sig.
Corrected Model 59.327a 13 4.564 7.102 .000 Intercept 8664.507 1 8664.507 13484.554 .000 Perlkn 57.910 11 5.265 8.193 .000 Blok 1.417 2 .709 1.103 .350 Error 14.136 22 .643 Total 8737.970 36 Corrected Total 73.463 35
Dependent variabel:Tinggitanaman3 MST
Source
Type III Sum of
Squares df Mean Square F Sig.
Corrected Model 17337.137a 13 1333.626 .780 .673 Intercept 36055.680 1 36055.680 21.079 .000 Perlkn 15647.963 11 1422.542 .832 .612 Blok 1689.174 2 844.587 .494 .617 Error 37630.953 22 1710.498 Total 91023.770 36 Corrected Total 54968.090 35
a. R Squared = ,315 (Adjusted R Squared = -,089)
Lampiran 2. Hasil analisis statistik jumlah daun tanaman cabai umur 1,2,3 MST
Tests of Between-Subjects Effects Dependent variabel:Jumlahdaun1 MST
Source
Type III Sum of
Squares df Mean Square F Sig.
Corrected Model 12.374a 13 .952 5.186 .000 Intercept 1351.788 1 1351.788 7365.272 .000 perlkn 10.839 11 .985 5.369 .000 blok 1.536 2 .768 4.183 .029 Error 4.038 22 .184 Total 1368.200 36 Corrected Total 16.412 35
Tests of Between-Subjects Effects Dependent variabel: Jumlahdaun 2 MST
Source
Type III Sum of
Squares df Mean Square F Sig.
Corrected Model 51.611a 13 3.970 6.367 .000 Intercept 3083.951 1 3083.951 4945.912 .000 perlkn 49.276 11 4.480 7.184 .000 blok 2.336 2 1.168 1.873 .177 Error 13.718 22 .624 Total 3149.280 36 Corrected Total 65.329 35
a. R Squared = ,790 (Adjusted R Squared = ,666)
Tests of Between-Subjects Effects Dependent variabel:Jumlahdaun3 MST
Source
Type III Sum of
Squares df Mean Square F Sig.
Corrected Model 124.038a 13 9.541 4.106 .002 Intercept 6001.084 1 6001.084 2582.739 .000 perlkn 119.929 11 10.903 4.692 .001 blok 4.109 2 2.054 .884 .427 Error 51.118 22 2.324 Total 6176.240 36 Corrected Total 175.156 35
a. R Squared = ,708 (Adjusted R Squared = ,536)
Lampiran3..Hasilanalisisstatistik Kejadianpenyakit (%)padatanamancabai.
Dependent Variable: Kejadianpenyakit
Source
Type III Sum
of Squares df Mean Square F Sig.
Corrected Model 9169,444(a) 13 705,342 1,522 ,186
Intercept 52136,111 1 52136,111 112,512 ,000 kompos 6563,889 11 596,717 1,288 ,294 blok 2605,556 2 1302,778 2,811 ,082 Error 10194,444 22 463,384 Total 71500,000 36 Corrected Total 19363,889 35
FENNY SALOMINA JENSANURA ASYEREM.The use of bioagentsTricho- dermaspp. and bacteria cellulotic.as decomposer of Ageratum conyzoides var
hirtum (Lam), Tithonia diversifolia (Hamsley) A. Gray and Sago Waste to pro- duce organic fertilizer for Chili (Capsicum annuum L.).Under supervision of H.M.H BINTORODJOEFRIE and DYAH MANOHARA.
Ageratum conzoides var hirtum (Lam), Tithonia diversifolia (Hamsley) A. Gray and waster sago can be used as organic fertilizer or compost. Some isolates of Trichodermaspp. and bacteria cellulotic had been tested as the antagonize agent for controllingPhytophthora capsici(wilt disease on chili). These microorganism were used as decomposer of weeds, A.conyzoideshirtum var (Lam),
T.diversifolia(Hamsley) A. Gray, and sago waste. The aims of the study were to select microbes that has capability to degradation cellulose and able to accelerate the composting process of A.conyzoideshirtum var (Lam), T.diversifolia(Hamsley) A. Gray, and sago waste; and determine the effect of formula compost on plant growth of chili, resistance to infection of P. capsici L and yield of chili. This study was conducted in three phases: 1). Selection of Trichoderma spp and bacte- ria isolates on Carboxy methyl cellulose (CMC) media, 2). Composting A.cony- zoides var hirtum (Lam), T.diversifolia(Hamsley) A. Gray and sago waste by isolates ofTrichoderma spp and bacteria cellulotic which had been selected; 3). Application of compost formulas on chiliplants. The visualization of cellulase activities on CMC mediawere shown as the clear zone around the colony. Six isolates of Trichoderma spp (PO3, S1, N34, IU, PB 13, SKM) have the clear zone ratio range between 3.0 -5.3 and six isolates of bacteria (St109, Sk7, Cm58, Sk14, Sk 10 and St18) havethe clear zone ratio range between 2.6 to 5.4; were selected to decompose weeds and sago waste.The result showed that Trichoderma spp and bacteria cellulotic inoculantsor themixed of them were able to reduce the duration of composting process from 17–18 days to 13-15 days. The products of compost formula are appropriate with the SNI19-7030-2004 and standards minimumof technical organicfertilizer.Application of compost formulas and goat manure on chili plants affected the growth, the disease attacked and the yield of chili. The application of formula D{goat manure+A. conyzoides var hirtum (Lam)+ sago waste} caused the diseaseattacked about 33.3%but the yield was 524,56 g. While the diseaseattackedatgoat manuretreatment was 16.67% and the yield was 132.3 g. Formula D increased the yield of chili 3.96 times compare than goat manure only.
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