Evaluation and kinetics of biogas yield from morning glory ( Ipomoea aquatica ) co-digested with water hyacinth ( Eichhornia crassipes )

Adanikin, Bamidele; Ogunwande, Gbolabo Abidemi; Adesanwo, O. O.

doi:10.1016/j.ecoleng.2016.10.067

Cited by 28 publications

(11 citation statements)

References 20 publications

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“…Since the residue from the first stage was used as substrate for biomethane production in this research, the substrate was readily to be digested and no lag phase time was required. The results agreed with those of Li et al [29], Adanikina et al [28], Zhen et al [27], Syaichurrozi [13], and Syaichurrozi et al [26].…”

Section: Kinetic Model For Biogas Productionsupporting

confidence: 91%

“…It has been used by many researchers to model the biomethane production [12,15,[23][24][25]. However, some researchers reported that other models such as Cone model [13,[26][27][28], First order Model [14,28], and Transference function [29] were fitted better with the experimental data. The modified Gompertz and logistic model assume that the specific growth rate of methanogenic organisms is directly proportional to the methane produced from the anaerobic reactor, with the growth curve seems to be sigmoidal production trend [15].…”

Section: Kinetic Model For Biogas Productionmentioning

confidence: 99%

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Biohydrogen and Biomethane Production from Acid Pretreated Water Hyacinth and Kinetics

Jarusiripot

Sungthong²

2022

Trends Sci

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In this study, several ratios of water hyacinth to acid solution were varied from 1:10, 1:20, 1:30, and 1:40, in order to find the optimum ratio for biohydrogen and biomethane production. The pretreated water hyacinth was used as substrates to produce hydrogen in the first stage anaerobic digestion. Then the residue from hydrogen production was used as substrate for methane production in the second stage. The results showed that cumulative hydrogen production slightly increased with the substrate to acid solution (2 % v/v H2SO4) ratio. The highest cumulative hydrogen produced (77.47 mL with 7.75 mL H2/gVS) at 1:40 substrate to acid solution, however the highest hydrogen content obtained at 1:20 (40.1 %). Hydrogen could not be produced from water hyacinth without acid pretreatment, only 4 mL hydrogen was detected from control case. In the second stage, methane was generated from the residue of first stage fermentation and found that the highest cumulative methane was obtained from 1:30 substrate to acid solution ratio. The methane content was not significantly different for control (53.68 %), 1:10 (54.45 %), 1:20 (53.46 %), and 1:30 (52.10 %) cases. The modified Gompertz, modified Logistic, and Cone model were best fit models for hydrogen production since the fermentation needed lag phase time before the hydrogen can be generated. The calculated lag phase time from modified Gompertz model increased from 0.0531 to 0.9775 day, and those from modified Logistic model increased from 0.3867 to 1.0305 day. On the other hand, the Cone model, first order model, and Transference function agreed very well with the second stage methane production data where lag phase time was nearly zero. HIGHLIGHTS Biohydrogen cannot be produced from water hyacinth without acid pretreatment The optimum substrate to acid solution ratio for pretreating water hyacinth for hydrogen production is at 1:20 with highest hydrogen content. Higher acid ratio produced more undesired gases Biomethane can be produced from water hyacinth without acid pretreatment. Only mechanical size reductionand heating pretreatment are enough to facilitate the process Hydrogen production were best described by the modified Gompertz, modified Logistic, and Cone model. On the other hand, second stage biomethane production were best described by the Cone model, first order model, and Transference function GRAPHICAL ABSTRACT

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Section: Kinetic Model For Biogas Productionsupporting

confidence: 91%

Section: Kinetic Model For Biogas Productionmentioning

confidence: 99%

Biohydrogen and Biomethane Production from Acid Pretreated Water Hyacinth and Kinetics

Jarusiripot

Sungthong²

2022

Trends Sci

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“…One of the economical and environmentally friendly disposal options of harvested ECP biomass is its conversion into nutrient-rich organic fertilizer. Other disposals or utilization options that are cost-intensive include its use as an adsorbent for dye removal (Prasad and Yadav 2020), biogas (Adanikin et al 2017), bioethanol (Adanikin et al 2017), composite (Flores Ramirez et al 2015, a substrate for mushroom (Andrew et al 2013), and briquette (Munjeri et al 2016) production.…”

Section: Disposal Options For Ecpmentioning

confidence: 99%

Preliminary study on greywater treatment using water hyacinth

et al. 2021

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Greywater constitutes a major portion of wastewater generated from domestic units. Greywater treatment through a natural treatment system provides a sustainable method of wastewater management. The objective of this study was to evaluate the potential of water hyacinth as phytoremediation aquatic microphytes for greywater treatment based on optimum growth and harvesting frequency. The treatment system was operated in continuous mode for 30 days. The physicochemical properties of treated greywater and physical characteristics of water hyacinth were determined. The physiochemical parameters of the influent greywater: water temperature (23.1–24.9 °C), pH (6.94–7.94), total dissolved solids (192–648 mg/L), turbidity (9.8–49.9 NTU), chemical oxygen demand (51.2–179.2 mg/L), ammonium–nitrogen (2.8–6.16 mg/L), and phosphate–phosphorous (0.45–1.168 mg/L). The results showed an average removal of ammonium–nitrogen, phosphate–phosphorous, and chemical oxygen demand of 63.26 ± 10.47%, 61.96 ± 12.11%, and 51.91 ± 5.32%, respectively. A 75% increase in the water hyacinth biomass was observed during the study which may be attributed to the dense roots, hyperaccumulative properties, and the rapid growth rate of water hyacinth. A harvesting interval of 15–20 days was recommended for phytoremediation of greywater for efficient treatment performance. However, feasible harvesting methods need to be developed for removing only matured mother plants, leaving baby water hyacinth in the treatment system. Water hyacinth found to be a potential phytoremediation plant for greywater treatment, providing consistent quality of treated water.

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“…[ 39 ] Similarly, Adanikin et al. [ 22 ] reported that the 50:50 ratio of WH to morning glory as the best mixing ratio with the highest biogas yield. Contradictorily, in this study, the WH/DM ratio of 50:50 led to the lowest biogas yield.…”

Section: Resultsmentioning

confidence: 99%

Co‐Digestion of Water Hyacinth and Duck Manure for Potential Low‐Cost Biogas Production by Rural Communities

Jamaluddin

Zulkeflee

2023

CLEAN Soil Air Water

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Leftover harvested water hyacinth biomass and duck manure can create waste management issues. As they are readily abundant and available, potential co-digestion of both waste sources for biogas production is explored as a waste-to-energy approach for a rural fishermen community. Seven 19-L do-it-yourself bioreactors are constructed with four different feedstock mixing ratios. The mixing ratios of water hyacinth to duck manure are varied at 70:30, 50:50, and 30:70, and are conducted in duplicate. One reactor utilizing 100% water hyacinth as feedstock acts as the control. Biogas production is measured daily for 50 days through the water displacement method. Variations in pH and chemical oxygen demand levels are monitored weekly. The results show that the highest biogas production is from the mixture of water hyacinth to duck manure at a 70:30 ratio (p < 0.05), with a volume of cumulative gas produced at 4.27 L that can be well simulated through the logistic function kinetic model (R 2 = 0.965). The biogas produced consists of methane, carbon monoxide, and hydrogen sulfide. The findings prove the potential of water hyacinth and duck manure as feedstocks for biogas production as one of the waste management solutions that can be practiced by the community.

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Evaluation and kinetics of biogas yield from morning glory ( Ipomoea aquatica ) co-digested with water hyacinth ( Eichhornia crassipes )

Cited by 28 publications

References 20 publications

Biohydrogen and Biomethane Production from Acid Pretreated Water Hyacinth and Kinetics

Biohydrogen and Biomethane Production from Acid Pretreated Water Hyacinth and Kinetics

Preliminary study on greywater treatment using water hyacinth

Co‐Digestion of Water Hyacinth and Duck Manure for Potential Low‐Cost Biogas Production by Rural Communities

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