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Home Archive 2021 № 4 TWO-STAGE DEGRADATION OF SOLID ORGANIC WASTE AND LIQUID FILTRATE V. M. Hovorukha, O. A. Havryliuk, I. O. Bida, Ya. P. Danko, O. V. Shabliy, G. V. Gladka, L. S. Yastremska, O. B. Tashyrev
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ISSN 2410-7751 (Print)
ISSN 2410-776X (Online)

Biotechnologia Acta V. 14, No 4, 2021
Р. 70-79, Bibliography 42, English
Universal Decimal Classification: 579.695


V. M. Hovorukha, O. A. Havryliuk, I. O. Bida, Ya. P. Danko, O. V. Shabliy, G. V. Gladka, L. S. Yastremska, O. B. Tashyrev

Zabolotny Institute of Microbiology and Virology of the National Academy of Sciences of Ukraine, Kyiv

The accumulation of solid and liquid organic waste requires their treatment to develop energy biotechnologies and prevent environment pollution.

Aim. The goal of the work was to study the efficiency of the purification of the filtrate from dissolved organic compounds by aerobic oxidation and methane fermentation.

Methods. The standard methods were used to determine рН and redox potential (Eh), the gas composition, the content of short-chain fatty acids, the concentration of dissolved organic compounds counting to the total сarbon. The efficiency of two types of microbial metabolism for the degradation of soluble organic compounds of filtrate was compared.

Results. The aerobic oxidation was established to provide 1.9 times more efficient removal of dissolved organic compounds, compared with the anaerobic methane fermentation. However, it provided CH4 yield 1 L/dm3 of filtrate (сarbon concentration — 1071 mg/L). The necessity to optimize the methods for purifying filtrate to increase the efficiency of the process was determined.

Conclusions. The obtained results will be the basis to develop complex biotechnology providing not only the production of environmentally friendly energy H2 via the fermentation of solid food waste, but also the purification of filtrate to solve the ecological and energy (CH4 production) problem of society.

Key words: solid organic waste; soluble organic compounds; environmental biotechnologies; hydrogen; methane; fermentation; aerobic oxidation.

© Palladin Institute of Biochemistry of National Academy of Sciences of Ukraine, 2021

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Ж-л "Biotechnologia Acta" Т. 14, № 4 , 2021

С. 70-79, библиогр. 42, англ.

УДК: 579.695


В. M. Говоруха, O. A. Гаврилюк, И. А. Бида, Я. П. Данько, А. В. Шаблий,

Г. В. Гладка, Л. С. Ястремская, А. Б. Таширев

Институт микробиологии и вирусологии им. Д. К. Заболотного НАН Украины, Киев

Накопление твердых и жидких органических отходов требует их переработки для развития энергетических биотехнологий и предотвращения загрязнения окружающей среды.

Цель. Изучение эффективности очистки фильтрата от растворенных органических соединений с помощью аэробного окисления и метановой ферментации.

Методы. Для определения рН и окислительно-восстановительного потенциала (Eh), состава газа, содержания короткоцепочечных жирных кислот, концентрации растворенных органических соединений по общему карбону были использованы стандартные методы.

Результаты. Проведено сравнение эффективности двух типов микробного метаболизма для деградации растворимых органических соединений фильтрата. Установлено, что аэробное окисление обеспечило в 1,9 раза более эффективное удаление растворенных органических соединений по сравнению с анаэробной метановой ферментацией, однако она сделала возможным выход CH4 1 л/дм3 фильтрата (концентрация по карбону — 1 071 мг/л). Определена необходимость оптимизации методов очистки фильтрата для повышения эффективности процесса.

Выводы. Полученные результаты будут основой для разработки комплексной биотехнологии, обеспечивающей не только производство экологически чистого энергоносителя H2 путем сбраживания твердых пищевых отходов, но также очистку фильтрата для решения экологической и энергетической (продуцирование CH4) проблемы общества.

Ключевые слова: твердые органические отходы; растворимые органические соединения; экологические биотехнологии; водород; метан; ферментация; аэробное окисление.


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Home Archive 2021 № 4 TWO-STAGE DEGRADATION OF SOLID ORGANIC WASTE AND LIQUID FILTRATE V. M. Hovorukha, O. A. Havryliuk, I. O. Bida, Ya. P. Danko, O. V. Shabliy, G. V. Gladka, L. S. Yastremska, O. B. Tashyrev

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