1. Home
  2. Lainnya

Larutan Sampel Berwarna Cokelat

LAMPIRAN Lampiran 1. Peta Lokasi

  Keterangan : Stasiun 1 : Daerah Kontrol Stasiun 2 : Daerah Pemukiman Penduduk Stasiun 3 : Daerah Industri Kopra Stasiun 4 : Daerah Pelelangan Ikan

Lampiran 2. Bagan Kerja Metode Winkler Untuk Mengukur DO Sampel Air

  

1 ml MnSO

  4

  

1 ml KOHKI

Dikocok

Didiamkan

Sampel Endapan Puith/Cokelat

  1 ml H

  2 SO

  4 Dikocok

  Didiamkan

Larutan Sampel Berwarna Cokelat

  

Diambil 100 ml

Dititrasi Na

  2 S

  2 O 3 0,00125 N

Sampel Berwarna Kuning Pucat

  Ditambah 5 tetes Amilum

Sampel Berwarna Biru

  Dititrasi dengan Na2S2O3

0,00125 N

Sampel Bening

  Dihitung volume Na S O

  2

  2

  3

  

yang terpakai

Hasil (Suin, 2002)

Lampiran 3. Bagan Kerja Metode Winkler Untuk Mengukur BOD

  5 (Suin, 2002)

  Keterangan :

   Penghitungan nilai DO awal dan DO akhir sama dengan penghitungan Nilai DO

   Nilai BOD = Nilai awal – Nilai DO akhir dihitung nilai DO akhir diinkubasi selama 5 hari pada temperatur 20°C dihitung nilai DO awal

  Sampel Air Sampel Air Sampel Air DO Akhir

  DO Awal

Lampiran 4. Tabel Kelarutan Oksigen T˚C 0,0 0,1 0,2 0,3 0,4 0,5 0,6 0,7 0,8 0,9

  14,6 14,12 14,08 14,04 14,00 13,97 13,93 13,89 13,85 13,81 1 13,77 13,74 13,70 13,66 13,63 13,59 13,55 13,51 13,48 13,44 2 13,40 13,37 13,33 13,30 13,26 13,22 13,19 13,15 13,12 13,08 3 13,05 13,01 12,98 12,94 12,91 12,87 12,84 12,81 12,77 12,74 4 12,70 12,67 12,64 12,60 12,57 12,54 12,51 12,47 12,44 12,41 5 12,37 12,34 12,31 12,28 12,25 12,22 12,18 12,15 12,12 12,09 6 12,06 12,03 12,00 11,97 11,94 11,91 11,88 11,85 11,82 11,79 7 11,76 11,73 11,70 11,67 11,64 11,61 11,58 11,55 11,52 11,50 8 11,47 11,44 11,41 11,38 11,36 11,33 11,30 11,27 11,25 11,22 9 11,19 11,16 11,14 11,11 11,08 11,06 11,03 11,00 10,98 10,95 10 10,92 10,90 10,87 10,85 10,82 10,80 10,77 10,75 10,72 10,70 11 10,67 10,65 10,62 10,60 10,57 10,55 10,53 10,50 10,48 10,45 12 10,43 10,40 10,38 10,36 10,34 10,31 10,29 10,27 10,24 10,22 13 10,20 10,17 10,15 10,13 10,11 10,09 10,06 10,04 10,02 10,00 14 9,98 9,95 9,93 9,91 9,89 9,87 9,85 9,83 9,81 9,78 15 9,76 9,74 9,72 9,70 9,68 9,66 9,64 9,62 9,60 9,58 16 9,56 9,54 9,52 9,50 9,48 9,46 9,45 9,43 9,41 9,39 17 9,37 9,35 9,33 9,31 9,30 9,28 9,26 9,24 9,22 9,20 18 9,18 9,18 9,15 9,13 9,12 9,10 9,08 9,06 9,04 9,03 19 9,01 8,99 8,98 8,96 8,94 8,93 8,91 8,89 8,88 8,86 20 8,84 8,83 8,81 8,79 8,78 8,76 8,75 58,73 8,71 8,70 21 8,68 8,67 8,65 8,64 8,62 8,61 8,59 8,58 8,56 8,55 22 8,53 8,52 8,50 8,49 8,47 8,46 8,44 8,43 8,41 8,40 23 8,38 8,37 8,36 8,34 8,33 8,32 8,30 8,29 8,27 8,26 24 8,25 8,23 8,22 8,21 8,19 8,18 8,17 8,15 8,14 8,13 25 8,11 8,10 8,09 8,07 8,06 8,05 8,04 8,02 8,01 8,00 26 7,99 7,97 7,96 7,95 7,94 7,92 7,91 7,90 7,89 7,88 27 7,86 7,85 7,84 7,83 7,82 7,81 7,79 7,78 7,77 7,76 28 7,75 7,74 7,72 7,71 7,70 7,69 7,68 7,67 7,66 7,65 29 7,64 7,62 7,61 7,60 7,59 7,58 7,57 7,56 7,55 7,54 30 7,53 7,52 7,51 7,50 7,48 7,47 7,46 7,45 7,44 7,43

Lampiran 5. Contoh Perhitungan

  a. Kepadatan (K) ikan Mystus nemurus Stasiun 4: Jumlah ind suatu spesies ulangan

  / K=

  Luas Jala 13 /

  30 =

  2 m

  7 , 065

  2 = 0,061 ind/m

  b. Kepadatan Relatif (KR) Mystus nemurus Stasiun 4: Jumlah K setiap spesies

  KR= x100% Total K

  , 061 x

  = 100 % , 207

   = 29,46

  c. Frekuensi Kehadiran (FK) Mystus nemurus Stasiun 4: Frekuensi suatu jenis x 100 %

  FK= Frekuensi seluruh jenis

  10 x

  = 100 %

  30 = 33,33%

  d. H’ stasiun 4: =  pi ln pi

   

  2 2  

  5

5  

  4 4  

  11 11   ln  ln  ln  ln          

  

  44

  44

  44

  44

  44

  44

  44

  44         = 

  7

  7

  13

  13

  2

  2       ln  ln  ln      

  44

  44

  44

  44

  44

  44       = -

∑( (-0,139) + (-0,245) + (-0,215) + (-0,346) + (0,292) + (-0,359) + (-0,139))

= 1,735

  e. E stasiun 4: H '

  = H max

  1 , 735 =

  1 , 945 = 0,892

  Lampiran 6. Hasil Perhitungan Korelasi Antara Faktor Fisik Kimia Perairan Dengan Indeks Keanekaragaman Dengan Metode Komputerisasi SPSS Ver.17 Kec. P. Kej. K.O.

  Suhu Arus Cahaya Kedalaman DO Oksigen pH BOD Nitrat Pospat Substrat H’

  Pearson 1 -.476 -.241 .318 .143 .978 .967 .974 .961 .750 -.750 .103

H’

  Correlation Sig. (2-tailed) .524 .759 .682 .857 .022 .033 .026 .039 .250 .250 .897 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4 Suhu Pearson -.476 1 .095 -.191 .796 -.299 -.246 -.663 -.216 -.174 .174 .814 Correlation Sig. (2-tailed) .524 .905 .809 .204 .701 .754 .337 .784 .826 .826 .186 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  • Kec. Pearson -.241 .095 1 -.994 .058 -.321 -.315 -.230 -.286 .424 -.424 -.203 Arus Correlation Sig. (2-tailed) .759 .905 .006 .942 .679 .685 .770 .714 .576 .576 .797 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  • P. Pearson .318 -.191 -.994

  1 -.110 .381 .372 .321 .341 -.365 .365 .141 Cahaya Correlation

  Sig. (2-tailed) .682 .809 .006 .890 .619 .628 .679 .659 .635 .635 .859 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  • Kedala Pearson .143 .796 .058 -.110 1 .316 .368 -.083 .400 .385 -.385 .960 man Correlation Sig. (2-tailed) .857 .204 .942 .890 .684 .632 .917 .600 .615 .615 .040 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  • * ** **

  DO Pearson .978 -.299 -.321 .381 .316 1 .998 .910 .996 .721 -.721 .300 Correlation Sig. (2-tailed) .022 .701 .679 .619 .684 .002 .090 .004 .279 .279 .700 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  • * * **

  Kej. Pearson .967 -.246 -.315 .372 .368 .998 1 .887 .999 .726 -.726 .351

  • Oksige Correlation n

  Sig. (2-tailed) .033 .754 .685 .628 .632 .002 .113 .001 .274 .274 .649 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  • pH Pearson .974 -.663 -.230 .321 -.083 .910 .887

  1 .874 .683 -.683 -.122 Correlation Sig. (2-tailed) .026 .337 .770 .679 .917 .090 .113 .126 .317 .317 .878 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  BOD Pearson .961 -.216 -.286 .341 .400 .996 .999 .874 1 .746 -.746 .376

  • Correlation Sig. (2-tailed) .039 .784 .714 .659 .600 .004 .001 .126 .254 .254 .624 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  • Nitrat Pearson .750 -.174 .424 -.365 .385 .721 .726 .683 .746

  1 -1.000 .181 Correlation Sig. (2-tailed) .250 .826 .576 .635 .615 .279 .274 .317 .254 .000 .819 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  • Pospat Pearson -.750 .174 -.424 .365 -.385 -.721 -.726 -.683 -.746 -1.000

  1 -.181 Correlation Sig. (2-tailed) .250 .826 .576 .635 .615 .279 .274 .317 .254 .000 .819 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  • K.O. Pearson .103 .814 -.203 .141 .960 .300 .351 -.122 .376 .181 -.181

  1 Substra Correlation t Sig. (2-tailed) .897 .186 .797 .859 .040 .700 .649 .878 .624 .819 .819 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4 *. Correlation is significant at the 0.05 level (2-tailed). Suhu Kec.

H’

  • .967
  • .974
  • .961
  • .750 -.750 .103

  Pearson Correlation 1 -.476 -.241 .318 .143 .978

  Arus P.

  Cahaya Kedalaman DO Kej.

  Oksigen pH BOD Nitrat Pospat K.O.

  Substrat

H’

  Sig. (2-tailed) .524 .759 .682 .857 .022 .033 .026 .039 .250 .250 .897 N

  • .476 1 .095 -.191 .796 -.299 -.246 -.663 -.216 -.174 .174 .814

    • .058 -.321 -.315 -.230 -.286 .424 -.424 -.203

  • .241 .095 1 -.994

    • 1 -.110 .381 .372 .321 .341 -.365 .365 .141

      • Sig. (2-tailed) .857 .204 .942 .890 .684 .632 .917 .600 .615 .615 .040 N
      • .299 -.321 .381 .316

    • .910 .996
    • .721 -.721 .300

  • .246 -.315 .372 .368 .998

    • .726 -.726 .351

  • .663 -.230 .321 -.083 .910 .887
  • .216 -.286 .341 .400 .996

    • .874
    • .181
    • 1 -.181

      • .750 .174 -.424 .365 -.385 -.721 -.726 -.683 -.746 -1.000

  • .300 .351 -.122 .376 .181 -.181

    • . Correlation is significant at the 0.01 level (2-tailed).

  4

  4

  4

  4 BOD Pearson Correlation

  .961

  .999

  1 .746 -.746 .376 Sig. (2-tailed) .039 .784 .714 .659 .600 .004 .001 .126 .254 .254 .624 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  .750 -.174 .424 -.365 .385 .721 .726 .683 .746 1 -1.000

  4 pH Pearson Correlation

  .974

  1 .874 .683 -.683 -.122 Sig. (2-tailed) .026 .337 .770 .679 .917 .090 .113 .126 .317 .317 .878 N

  4

  4

  4

  4

  4

  4 Nitrat Pearson Correlation

  Sig. (2-tailed) .250 .826 .576 .635 .615 .279 .274 .317 .254 .000 .819 N

  4

  4

  4

  4 K.O. Substra t

  Pearson Correlation

  .103 .814 -.203 .141 .960

  1 Sig. (2-tailed) .897 .186 .797 .859 .040 .700 .649 .878 .624 .819 .819 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4 *. Correlation is significant at the 0.05 level (2-tailed).

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4 Pospat Pearson Correlation

  Sig. (2-tailed) .250 .826 .576 .635 .615 .279 .274 .317 .254 .000 .819 N

  4

  4

  4

  4

  4

  4

  4

  Sig. (2-tailed) .033 .754 .685 .628 .632 .002 .113 .001 .274 .274 .649 N

  4

  4

  4

  4 Kec. Arus

  Pearson Correlation

  Sig. (2-tailed) .759 .905 .006 .942 .679 .685 .770 .714 .576 .576 .797 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4 P. Cahaya

  Pearson Correlation

  4

  4

  Sig. (2-tailed) .682 .809 .006 .890 .619 .628 .679 .659 .635 .635 .859 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4 Suhu Pearson Correlation

  Sig. (2-tailed) .524 .905 .809 .204 .701 .754 .337 .784 .826 .826 .186 N

  4

  4

  4

  4

  4

  4

  .318 -.191 -.994

  4

  1 .887 .999

  4

  4 DO Pearson Correlation

  .978

  1 .998

  Sig. (2-tailed) .022 .701 .679 .619 .684 .002 .090 .004 .279 .279 .700 N

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  Pearson Correlation

  .967

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4

  4 Kedala man Pearson Correlation

  4

  .143 .796 .058 -.110 1 .316 .368 -.083 .400 .385 -.385 .960

  4

  4

  4

  4

  4

  4

  4

  4 Kej. Oksige n

Dokumen yang terkait

Efektivitas Larutan Jeruk Nipis Terhadap Penurunan Kadar Merkuri (Hg) Pada Ikan Tongkol (Euthynnus sp )

0 0 14

Lampiran 3 Hasil Uji Signifikansi AR Tiga Hari Sesudah Event Seluruh Sampel

0 0 12

Lampiran 1 Sampel dan Populasi NO NAMA PERUSAHAAN KRITERIA SAMPEL1 2 3

0 0 17

Sampel Pembanding Bank Total Aset (juta Rupiah)

0 0 12

12 6 PSAB PT.J Resources Asia Pasific Tbk Mulyamin,Sensi SuryantoLianny √ √ √ Sampel

0 0 15

Perubahan Dimensi Hasil Cetakan Alginat yang Direndam dalam Larutan Ekstrak Daun Salam 25%

0 2 11

BAB 2 TINJAUAN PUSTAKA 2.1 Plak Dental - Efektivitas Larutan Madu Manuka UMF 10 dengan Konsentrasi 50% sebagai Obat Kumur terhadap Akumulasi Plak

0 0 17

Efektivitas Larutan Madu Manuka UMF 10 dengan Konsentrasi 50% sebagai Obat Kumur terhadap Akumulasi Plak

0 2 10

Sampel 6 17 Steel Pipe Industry of Indonesia Tbk ISSP- 18 Itamaraya Tbk

0 0 12

Lampiran 1 Populasi dan Sampel NO NAMA PERUSAHAAN KRITERIA SAMPEL1 2 3 4 5 Basic Industry 1 AKKU √

0 0 19