DOI: https://doi.org/10.14710/presipitasi.v21i3.681-695

The Performance of Household-Scale Horizontal Flow Constructed Wetland (HFCW) Unit for Treating Greywater

Iriani Putri Suleman  -  Universitas Pertamina, Indonesia
*Evi Siti Sofiyah  -  Universitas Pertamina, Indonesia
Betanti Ridhosari  -  Universitas Pertamina, Indonesia

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Abstract
Horizontal flow constructed wetland (HFCW) is a method mimicking natural processes in which plantations are used to treat wastewater. This method demonstrates superior efficacy in the removal of organic pollutants and total nitrogen. Furthermore, it offers the advantage of reduced operational and maintenance expenses. This research employs a household-scale HFCW unit, utilizing water hyacinths (Eichornia crassipes) to treat greywater from a single house. The study aims to assess the HFCW unit's performance in treating greywater at a household scale, with effluent quality compared against Minister of Environment and Forestry Regulation (Regulation Number 68/2016 on Domestic Wastewater Quality Standard) using testing methods in accordance with the Indonesian National Standards (SNI). The results indicate that the HFCW unit removal efficiencies after two days retention time are: BOD5 (74%-93%), COD (47%-80%), TSS (55%-97%), oil and grease (50%-94%), and ammonia (46%-99%). After three days, the unit generally demonstrates improved performance, which are: BOD5 (67%-96%), COD (57%-91%), TSS (51%-97%), oil and grease (11%-99%), and ammonia (35%-99%). Overall, the effluent quality meets government standards for both two- and three-days retention time, establishing the HFCW unit as an effective household-scale greywater treatment solution.
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Keywords: Constructed wetland; water hyacinth; greywater; household scale; detention

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Section: Original Research Article
Language : EN
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  1. Abou-Elela, S.I., 2017. Constructed wetlands: The green technology for municipal wastewater treatment and reuse in agriculture. In: Unconventional water resources and agriculture in Egypt
  2. Adany, F., 2017. Proses pengolahan air limbah secara fisika, kimia dan biologi. Surabaya: Institut Teknologi Sepuluh November
  3. Ajibade, F.O. and Adewumi, J.R., 2017. Performance evaluation of aquatic macrophytes for municipal wastewater treatment. Journal of Engineering and Engineering Technology, 11
  4. Alwi, D.A., 2022. Unjuk kerja hybrid constructed wetland kombinasi dengan konsorsium bakteri untuk removal kandungan logam, TSS, warna pada air limbah tenun. Yogyakarta: Indonesian Islamic University
  5. Batubara, D.N., Windarto, A.P., Wanto, A., Hartama, D. and Damanik, I.S., 2020. Analisis metode VIKOR pada pemilihan sabun cuci tangan terbaik berdasarkan konsumen. Journal of Consumer Research, 4, pp.52–57
  6. Berger, C., 2012. Biochar and activated carbon filters for greywater treatment – Comparison of organic matter and nutrients removal. Uppsala: Swedish University of Agricultural Sciences
  7. Central Bureau of Statistics, 2020. Indikator kesejahteraan rakyat. Jakarta: Central Bureau of Statistics of the Republic of Indonesia
  8. Collivignarelli, M.C., Miino, M.C., Gomez, F.H., Torretta, V., Rada, E.C. and Sorlini, S., 2020. Horizontal flow constructed wetland for greywater treatment and reuse: An experimental case. International Journal of Environmental Research and Public Health, 17, p.2317
  9. Erlita, D., Darmanijati, M. and Munandar, S., 2022. Reduksi kandungan COD dan BOD pada limbah cair batik menggunakan metode fitoremediasi. Journal of Education and Computer Science, 2, pp.21–29
  10. Gauss, M., 2008. Constructed wetlands: A promising wastewater treatment system for small localities: Experiences from Latin America. Peru: Regional Agency for Environmental Protection
  11. Ghaly, A.E., Kamal, M. and Mahmoud, N.S., 2005. Phytoremediation of aquaculture wastewater for water recycling and production of fish feed. Environmental International, 31, pp.1–13
  12. Gunasekara and Dissanayaka, 2022. Use of constructed wetland systems for greywater treatment: A review of the creative commons attribution license. International Journal of Trend Science Research and Development, 6, pp.1001–1013
  13. Hadi, S.N. and Pungut, P., 2022. Penurunan BOD, COD, dan TSS pada limbah domestik menggunakan kombinasi floating wetland dilanjutkan constructed wetland. WAKTU Journal of Engineering UNIPA, 20, pp.94–102
  14. Hariyanti, F., 2016. Efektifitas subsurface flow-wetlands dengan tanaman eceng gondok dan kayu apu dalam menurunkan kadar COD dan TSS pada limbah pabrik saus. Semarang: Muhammadiyah University of Semarang
  15. Hartanti, P.I., Tunggul, A., Haji, S. and Wirosoedarmo, R., 2014. Pengaruh kerapatan tanaman eceng gondok (Eichornia crassipes) terhadap penurunan logam chromium pada limbah cair penyamakan kulit. Journal of Natural Resources and Environment, 1, pp.31–37
  16. Hastuti, Y.P., 2011. Nitrification and denitrification in pond. Journal of Indonesian Aquaculture, 10, pp.89–98
  17. Hidayah, E.N., Djalalembah, A., Aprilliana, G. and Cahyonugroho, H., 2018. Pengaruh aerasi dalam constructed wetland pada pengolahan air limbah domestik. Journal of Environmental Science, 16, pp.155–161
  18. Ibrahim, E., Wahyu, A., Hasan, A.A., Daud, A., Syam, A. and Bintara, A., 2020. BOD decreasing of liquid waste tofu using a constructed wetland system. International Journal of Science and Healthcare Research, 5, pp.165
  19. Ilmannafian, A.G., Lestari, E.M.A. and Khairunisa, F., 2020. Processing of palm oil liquid waste by filtration and phytoremediation method using eichhornia crassipes. Journal of Environmental Technology, 21, pp.244–253
  20. Kalsum, S.U., Napoleon, A. and Yudono, B., 2014. Efektivitas eceng gondok (Eichhornia crassipes), hydrilla (Hydrilla verticillata), dan rumput payung (Cyperus alternifolius) dalam pengolahan limbah greywater. Journal of Scientific Research, 17, pp.20–25
  21. Khoirunnisa, F., 2022. Studi pengaruh variasi waktu retensi terhadap constructed wetland pada pengolahan limbah greywater. Palembang: Sriwijaya University
  22. Kholisah, A.N. and Pramitasari, N., 2018. Tahu menggunakan tanaman bambu air dengan sistem sub surface flow constructed wetland. Proceedings of the National Seminar on Biology Education, 14, pp.66–73
  23. Kim, Y., Giokas, D.L., Chung, P.G. and Lee, D.R., 2004. Design of water hyacinth ponds for removing algal particles from waste stabilization ponds. Water Science and Technology, 48, pp.115–123
  24. Lestari, D.E., Satrianegara, M.F. and Susilawaty, A., 2013. Efektivitas pengolahan limbah cair domestik dengan metode rawa buatan (constructed wetland). AL-SIHAH, 5, pp.184–193
  25. Maddusa, S.S., 2018. Efektivitas tanaman jeringau (Acorus calamus) untuk menurunkan kadar amoniak pada air limbah RSUD Kota Bitung. KESMAS Journal of Public Health University of Sam Ratulangi, 7, pp.37–46
  26. Minister of Environment and Forestry, 2016. Peraturan menteri lingkungan hidup dan kehutanan republik indonesia nomor R: P.68/Menlhk-Setjen/2016 tentang baku mutu air limbah domestik. Jakarta: Minister of Environment and Forestry of the Republic of Indonesia
  27. Ministry of Health, 2018. Laporan nasional RISKESDAS. Jakarta: Lembaga Penerbit Badan Penelitian dan Pengembangan Kesehatan (LPB)
  28. Novita, E., Wahyuningsih, S., Jannah, D.A.N. and Pradana, H.A., 2020. Fitoremediasi air limbah laboratorium analitik universitas jember dengan pemanfaatan tanaman eceng gondok dan lembang. Journal of Biotechnology and Biosciences Indonesia, 7, pp.121–135
  29. Novita, E., Wahyuningsih, S., Safrizal, M.R., Ika, A. and Pradana, H.A., 2022. Kajian perbaikan kualitas air limbah pengolahan kopi menggunakan metode fitoremediasi dengan tanaman eceng gondok (Eichhornia crassipes). Journal of Science and Technology, 11, pp.192–203
  30. Oteng-Peprah, M., Acheampong, M.A. and de Vries, N.K., 2018. Greywater characteristics, treatment systems, reuse strategies and user perception—a review. Water, Air and Soil Pollution, 229
  31. Patel, P.A. and Dharaiya, N.A., 2013. Manmade wetland for wastewater treatment with special emphasis on design criteria. Science Review of Chemical Communications, 3, pp.150–160
  32. Pazare, P.R. and Waghmare, C.S., 2018. A laboratory scale analysis of greywater using drawer compacted sand filter. Journal of Research in Engineering and Applied Science, 3, pp.98–101
  33. Perdana, M.C., Hadisusanto, S. and Purnama, I.L.S., 2020. Implementation of a full scale constructed wetland to treat greywater from tourism in Suluban Uluwatu Beach, Bali, Indonesia. Heliyon, 6, p.e05038
  34. Picauly, M.J., 2022. Fitoremediasi dengan constructed wetland menggunakan eichhornia crassipes (Mart) solms, pistia stratiotes L. dan equisetum hyemale L., untuk mengolah limbah cair domestik perumahan BTN serta pengaruhnya pada pertumbuhan caisim (Brassica juncea L.). Kefamenanu: Timor University
  35. Prastiwi, S.E., 2015. Perbandingan tingkat efektivitas jeringau (Acorus calamus) dan eceng gondok (Eichormia crassipes) dalam menurunkan konsentrasi amonia air limbah RSUD Manembo-nembo Kota Bitung. Manado: University of Sam Ratulangi
  36. Prastyo, I., 2020. Dampak pencemaran air terhadap lingkungan hidup di Indonesia. Proceedings of the National Conference on Environmental Studies, 2, pp.100–109
  37. Prayoga, T.A., 2021. Pengolahan greywater dengan menggunakan teknologi constructed wetland. Bogor: Bogor Agricultural University
  38. Prijadi, A., Syahrial, M., Subagyo, T. and Suyoto, 2020. Pengaruh penambahan tanaman Typha latifolia pada sistem fitoremediasi konstruksi basah untuk pengolahan limbah cair tekstil. Jurnal Ilmu Lingkungan, 18, pp.94–103
  39. Putri, E.D.S., Putra, R.F. and Karjanto, M., 2022. Efektifitas konstruksi wetland sistem aliran horizontal subsurface menggunakan tanaman bumbung dalam mengolah limbah cair domestik. Journal of Environmental Engineering, 10, pp.89–97
  40. Riyanto, T., Sari, I.R., and Wiyanti, E., 2017. Pengolahan air limbah domestik menggunakan tanaman air (wetland system) di Daerah Aliran Sungai Cisadane. Jurnal Manajemen Pengelolaan Air dan Limbah, 7, pp.120–129
  41. Sanchez, F., Herrera, C., and Romero, M., 2019. Greywater treatment with horizontal subsurface flow constructed wetland in Ecuador: Operation at full scale. Water Research Journal, 159, pp.352–361
  42. Santoso, B., 2020. Efisiensi tanaman jeringau (Acorus calamus) dalam menurunkan kandungan BOD, COD, dan TSS pada limbah domestik dengan metode constructed wetland. Jurnal Teknologi Pengelolaan Limbah, 5, pp.60–67
  43. Sari, N.R., Yusuf, A.M., and Idrus, M., 2020. Efektivitas metode fitoremediasi menggunakan tanaman air dalam pengolahan limbah domestik di Kota Makassar. Jurnal Teknik Lingkungan, 11, pp.121–128
  44. Sari, P., Putri, S., and Saputra, M., 2019. Studi pengolahan limbah cair industri tahu menggunakan sistem constructed wetland aliran bawah permukaan. Journal of Environmental Science, 3, pp.55–63
  45. Setiawan, S., Karyanto, B., and Sari, A., 2022. Performance of horizontal subsurface flow constructed wetland planted with reed and Typha for greywater treatment in tropical climate. Environmental Technology Journal, 43, pp.29–38
  46. Siregar, F., 2016. Pengaruh kerapatan tanaman air eceng gondok (Eichornia crassipes) terhadap efektivitas penurunan kadar BOD dan COD pada limbah cair domestik. Yogyakarta: Gadjah Mada University
  47. Sugiharto, A., 2022. Evaluasi penggunaan constructed wetland sistem subsurface horizontal flow dalam pengolahan greywater domestik di Kabupaten Klaten. Journal of Environmental Engineering and Technology, 12, pp.45–55
  48. Taufik, M. and Yusuf, R.A., 2020. Efektivitas metode fitoremediasi pada pengolahan limbah cair domestik dengan menggunakan eceng gondok. Jurnal Pengelolaan Sumberdaya Alam dan Lingkungan, 10, pp.155–164
  49. Utami, H., 2021. Dampak penerapan constructed wetland pada penurunan kadar COD dan BOD air limbah domestik. Bandung: Bandung Institute of Technology
  50. Wijaya, A. and Hasan, M., 2021. Pengaruh variasi ketebalan media pada constructed wetland dalam penurunan kadar BOD dan COD air limbah domestik. Journal of Environmental Science and Engineering, 8, pp.200–208
  51. Wijayanti, R., 2020. Studi perbandingan tingkat efektivitas constructed wetland menggunakan tanaman Typha latifolia dan Phragmites australis dalam mengolah limbah cair domestik. Jurnal Teknologi Lingkungan, 6, pp.113–121
  52. Yulianto, P., 2019. Kinerja eceng gondok (Eichornia crassipes) dalam menurunkan kadar COD, BOD, dan TSS air limbah domestik pada sistem constructed wetland. Journal of Environmental Engineering, 11, pp.89–97
  53. Yusuf, M.A., 2021. Pengolahan greywater di wilayah perkotaan dengan menggunakan sistem constructed wetland. Malang: Brawijaya University
  54. Zulkarnain, A., and Rijal, M., 2018. Efektifitas eceng gondok dan kangkung air dalam menurunkan BOD dan COD pada limbah cair domestik menggunakan constructed wetland. Jurnal Penelitian Lingkungan, 15, pp.203–212

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