scholarly journals Producing biogas from cow manure, chicken manure, and organic waste by batch system

2021 ◽  
Vol 896 (1) ◽  
pp. 012011
Author(s):  
M Taufiq ◽  
E Kusdiyantini ◽  
J Windarta

Abstract Cow manure, chicken manure, and organic waste are solid wastes that can be used as an energy source through a biogas digester. This study aims to determine the production of biogas from waste in a batch digester system. This research uses a digester in the form of a plastic drum with a capacity of 220 liters. 3 treatments were consisting of digester 1 containing cow manure and water (50:50), digester 2 in the form of a mixture of cow manure, chicken manure, and water (30:20:50), digester 3 containing cow manure, organic waste, and water (30:20:50). The digester is then closed tightly for 130 days. The results showed that the daily temperature ranged between 26°−31°C and the acidity (pH) 7-7.62. The biogas production of each digester was then carried out a flame test with a biogas stove. The results of the gas stove flame test show that digester 2 has a longer total flame period of 4302 seconds, then digester 1 has a total flame period of 4034 seconds and lastly, digester 3 has a total flame period of 2370 seconds.

Author(s):  
Zulfikar Ali As ◽  
Hardiono Hardiono ◽  
Syarifudin A.

Production of Biogas from Cow Manure and Chicken Manure with Addition of Papain. Farms not only contribute positively to meet the demands of protein and increase incomes but also have a negative impact on the environment due to their wastes, especially manure. Biogas produced from the anaerobic decomposition of organic waste is a solution of manure utilization to be a fuel which is cheap and environmentally friendly. To accelerate the production of biogas it is needed a proteoloitik enzyme from papaya, which is called papain. This study aims to calculate the production of biogas from cow manure and chicken manure with addition of papain. The experiments were conducted in the digester made from plastic drums and observed for 30 days. The results showed that the papain influenced of production acceleration of biogas from cow manure. Comparison of biogas production in a week from cow manure: cow manure + 2 kgs of papaya pieces: cow manure + 4 kgs of papaya pieces are 202.7 liters: 263 liters: 332.3 liters. Cow manure did not need other ingredients except water with ratio 1: 1½ . Chicken manure had not been able to produce biogas because their CN ratio was not eligible, although the chaff had been added to increase the carbon content. Biogas from cow manure with addition of papain can be applied on a wider scale, while biogas from chicken manure requires other ingredients that biodegrade easier to add C content in the mixture. Keywords : biogas; cow manure; chicken manure; papain


Author(s):  
Kai Schumüller ◽  
Dirk Weichgrebe ◽  
Stephan Köster

AbstractTo tap the organic waste generated onboard cruise ships is a very promising approach to reduce their adverse impact on the maritime environment. Biogas produced by means of onboard anaerobic digestion offers a complementary energy source for ships’ operation. This report comprises a detailed presentation of the results gained from comprehensive investigations on the gas yield from onboard substrates such as food waste, sewage sludge and screening solids. Each person onboard generates a total average of about 9 kg of organic waste per day. The performed analyses of substrates and anaerobic digestion tests revealed an accumulated methane yield of around 159 L per person per day. The anaerobic co-digestion of sewage sludge and food waste (50:50 VS) emerged as particularly effective and led to an increased biogas yield by 24%, compared to the mono-fermentation. In the best case, onboard biogas production can provide an energetic output of 82 W/P, on average covering 3.3 to 4.1% of the total energy demand of a cruise ship.


2011 ◽  
Vol 236-238 ◽  
pp. 98-103
Author(s):  
Li Jun Shi ◽  
Li Tong Ban ◽  
Hui Fen Liu ◽  
Jian Chao Hao ◽  
Wei Yu Zhang

Dry anaerobic co-digestion of animal manure and straw was conducted to produce biogas. Startup characteristics and biogas production perform of dry digestion were studied, and the effect of operation temperature and incubation amount on dry digestion was also investigated. The study result showed that under the conditions of C/N=25-30, TS=20% and T=(36±1) °C,dry digestion can start up quickly with acclimated thickening sludge as incubation sludge. Compared to dry digestion of chicken manure and pig manure, dry digestion of cow manure proceeded steadily with high biogas yield. It is found that incubation is necessary in the process of dry digestion and biogas yield increases with more incubation amount. The appreciate incubation ratio is about 10%. Temperature change has apparent effect on biogas production, and it is suggested that mesophilic temperature should be chosen in the scaled project of dry digestion.


2021 ◽  
Vol 21 (5) ◽  
pp. 1221
Author(s):  
Fahmi Arifan ◽  
Abdullah Abdullah ◽  
Siswo Sumardiono

The biogas fermentation from animal manure and organic waste was investigated with a comparison percentage of raw material used inside the digester with the anaerobic digestion process. Animal manure consists of cow dung and chicken manure, while organic waste consists of tofu liquid waste and cabbage waste. This study used a batch process that was operated at 55 °C incubator temperature for 90 days. The results of experimental data were predicted with a modified Gompertz model and first-order kinetic model. The equation of the modified Gompertz model to predict biogas production was  with  is cumulative production of methane; P∞ = methane production potential; Rm = maximum specific speed methane production; λ = is lag phase period or minimum time to produce biogas; e = math constant (2.7182) and t = biogas production cumulative time. The equation first-order kinetic model was Y = Ym (1-exp(-k). The highest biogas yield was obtained by variable 3 in both kinetic studies compared to 70% cow dung, 15% chicken manure, and 15% tofu liquid waste. Gompertz's kinetic study predicted variable three would produce 3273.20 mL/g of total solid (TS). In comparison, the first-order kinetic model predicted that variable three would produce 3517.95 mL/(g Ts).


2021 ◽  
Vol 9 (1) ◽  
pp. 233
Author(s):  
Megawati ◽  
Gusti Muhammad Hatta ◽  
Yudi FirmanuI Arifin

One of the organic waste that can be used and processed is Ieaf Iitter which is in the Lambung Mangkurat University. A potentiaI effort that can be made to maximize the use of this type oforganic waste is composting organic waste. The bioactivator used in this research is Iivestock manure (chicken manure and cow manure) combined with EM4 bioactivator. This study aims to anaIyze the best decomposition speed between activator chicken manure and cow manure with activator EM4 combination and to anaIyze the yieId of the fertiIizer obtained whether it has the quaIity of fertiIizer according to SNI. The resuIts of the study of the acceIerated decomposition of compost that were observed visuaIIy showed that the fastest rate of compost maturity occurred in treatment C (giving a combination of cow manure activator + EM4) which began to decompose at week 3, foIIowed by treatment B (giving chicken manure activator + EM4) which decomposed at week 4 and the Iatest in treatment A (controI) experienced decomposition at week 6. The resuIts of fertiIizer anaIysis showed that the compost produced aImost fuIfiIIed aII compost quaIity parameters based on SNI-19-7030-2004.


2021 ◽  
Vol 10 (3) ◽  
pp. 623-633
Author(s):  
Fahmi Arifan ◽  
Abdullah Abdullah ◽  
Siswo Sumardiono

One biomass form with a high potential to replace fossil fuels is biogas. Biogas yield production depends on the raw material or substrate used. This research was aimed to investigate abiogas production technique using an anaerobic digestion process based on a substrate mixture of a starter, cow dung, chicken manure, tofu liquid waste, and cabbage waste.The anaerobic digestion is a promised process to reduce waste while it is also producing renewable energy.Moreover, the process can digest high nutrients in the waste. The anaerobic digestion results showed that the combination producing the highest biogas amount was 200 mg starter mixed with a ratio of 70% cow dung, 15% chicken manure, and 15% tofu liquid waste. The larger the amount of cabbage waste, the lower the biogas production. The quadratic regression analysisand kinetics model based on the Gompertz equation was obtained for the variable with the highest yield, compared to 70% cow dung, 15% chicken manure, and 15% tofu liquid waste and the estimated kinetic parameters based on the Gompertz equations revealed that the value of P∞ = 2,795.142 mL/gr.Ts, Rm = 113, 983.777 mL/gr.Ts, and t = 10.2 days. The results also conluded that the use of  tofu liquid waste produced more biogas than cabbage waste. This study also successfully showed significant development in terms of the amount of biogas produced by adding organic waste to animal manure as the substrate used


BioResources ◽  
2017 ◽  
Vol 12 (4) ◽  
pp. 9383-9395
Author(s):  
Mohammad Al-Addous ◽  
Mohammad Alnaief ◽  
Christina Class ◽  
Abdullah Nsair ◽  
Kerstin Kuchta ◽  
...  

Using renewable energy sources provides a promising solution to minimize the overuse of conventional energy sources as well as to reduce pollution. Biogas technology is one solution that offers the conversion of waste streams to a renewable source of higher value. Anaerobic digestion of organic waste from industrial processes produces energy in the form of biogas, which has an advantage of preventing odor release, and has minimal pathogens. In this study, two different sources of bio-waste were investigated for their biogas potential, namely palm date waste and olive pomace. All of the samples produced biogas; however, the amount produced was only 20% to 40% of what conventional substrates typically produced. Producing biogas that uses only olive biomass offers a solution to the waste disposal problem, but it is not efficient for biogas production. For optimal heat utilization and maximizing biogas production, mixing of different feedstock was identified as a valid solution. Hence, a model of mixing other sources of bio-waste, such as chicken manure, can activate sludge and is proposed to boost the biogas production.


2014 ◽  
Vol 14 (1) ◽  
pp. 11-20
Author(s):  
Abdul Kahar ◽  
Ira Aisya ◽  
Waya Wulan Sari

Tujuan penelitian ini adalah mengetahui pengaruh penambahan tandan kosong kelapa sawit pada reaktor anaerobik terhadap produksi biogas limbah cair kelapa sawit. Bahan penelitian berupa limbah cair kelapa sawit, kotoran sapi dan variasi penambahan Tandan Kosong Kelapa Sawit (TKKS) 1%, 3% dan 5% dengan 2 kali ulangan dan waktu fermentasi selama 70 hari. Percobaan dilakukan dengan sistem batch dalam reaktor anaerobic, pada temperatur psychrophilic (27°C) dan temperatur. Mesophilic (37°C) dan kapasitas reaktor adalah 300 mL, dengan  volume campuran sebanyak 210 mL yang berisi: a) LCKS, dan b) LCKS dengan tambahan kotoran sapi dengan rasio 1:2 (v/v). Reaktor anaerobik terhubung ke penampung untuk menghitung produksi biogas, yang diamati setiap hari selama 50 hari. Hasil penelitian menunjukkan bahwa produksi biogas tertinggi adalah pada limbah cair kelapa sawit, kotoran sapi, TKKS 5% sebesar 872,5 mL. Penambahan TKKS memberikan pengaruh terhadap produksi biogas limbah cair kelapa sawit pada hari ke 1-24. Penambahan TKKS yang optimal yaitu pada penambahan TKKS 5 %. Hasil penelitian menunjukkan produksi biogas pada temperatur mesophilic lebih besar daripada produksi biogas pada temperatur psychrophilic. The objective of research is to know the effect of empty fruit bunches in anaerobic reactor of palm oil mill effluent (POME) of biogas production. Research materials are this form of palm oil mill effluent, cows manure with a variation of Empty Fruit Bunches (EFB) addition of 1%, 3% and 5% with two replications and 70 days fermentation. The experiment was conducted in a batch system with the anaerobic reactor. It was conduct, at  temperature psychrophilic (27°C) dan temperature mesophilic (37°C), with reactor capacity is 300 mL, and the volume of mixture is 210 mL which is contains: a) POME  and b) POME with additional cow manure with the ratio of 1:2 (v/v). Anaerobic reactor was connected to the collector to calculate production of biogas. It was observed in every day during 50 days. The results showed that biogas production is highest in palm oil mill effluent, cow manure, EFB 5% is 872.5 mL. The addition of EFB give effect of palm oil mill effluent biobiogas production on days 1-24. The addition of empty fruit bunches which are optimal in the addition of 5 %. The results showed the biogas production at temperature mesophilic more hight than temperature psychrophilic.


Water ◽  
2021 ◽  
Vol 13 (5) ◽  
pp. 590
Author(s):  
Aiban Abdulhakim Saeed Ghaleb ◽  
Shamsul Rahman Mohamed Kutty ◽  
Gasim Hayder Ahmed Salih ◽  
Ahmad Hussaini Jagaba ◽  
Azmatullah Noor ◽  
...  

Man-made organic waste leads to the rapid proliferation of pollution around the globe. Effective bio-waste management can help to reduce the adverse effects of organic waste while contributing to the circular economy at the same time. The toxic oily-biological sludge generated from oil refineries’ wastewater treatment plants is a potential source for biogas energy recovery via anaerobic digestion. However, the oily-biological sludge’s carbon/nitrogen (C/N) ratio is lower than the ideal 20–30 ratio required by anaerobic digestion technology for biogas production. Sugarcane bagasse can be digested as a high C/N co-substrate while the oily-biological sludge acts as a substrate and inoculum to improve biogas production. In this study, the best C/N with co-substrate volatile solids (VS)/inoculum VS ratios for the co-digestion process of mixtures were determined empirically through batch experiments at temperatures of 35–37 °C, pH (6–8) and 60 rpm mixing. The raw materials were pre-treated mechanically and thermo-chemically to further enhance the digestibility. The best condition for the sugarcane bagasse delignification process was 1% (w/v) sodium hydroxide, 1:10 solid-liquid ratio, at 100 °C, and 150 rpm for 1 h. The results from a 33-day batch anaerobic digestion experiment indicate that the production of biogas and methane yield were concurrent with the increasing C/N and co-substrate VS/inoculum VS ratios. The total biogas yields from C/N 20.0 with co-substrate VS/inoculum VS 0.06 and C/N 30.0 with co-substrate VS/inoculum VS 0.18 ratios were 2777.0 and 9268.0 mL, respectively, including a methane yield of 980.0 and 3009.3 mL, respectively. The biogas and methane yield from C/N 30.0 were higher than the biogas and methane yields from C/N 20.0 by 70.04 and 67.44%, respectively. The highest biogas and methane yields corresponded with the highest C/N with co-substrate VS/inoculum VS ratios (30.0 and 0.18), being 200.6 mL/g VSremoved and 65.1 mL CH4/g VSremoved, respectively.


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