Publication Details
GODWIN ABAKARI
- NUGS-Shanghai
- Aquaculture (Masters)
- Shanghai Ocean University
Dynamics of nitrogenous compounds and their control in biofloc technology (BFT) systems: A review 27 Jul 2020
Aquaculture and Fisheries
Characterizing the water quality and microbial communities in different zones of a recirculating aquaculture system using biofloc biofilters 27 Jul 2020
Aquaculture
Effects of carbohydrate addition strategy and biofloc levels on the establishment of nitrification in biofloc technology aquaculture systems 27 Jul 2020
Aquaculture
Microbial quality and antibiotic sensitivity of bacterial isolates in “Tuoâ€Zaafi†vended in the central business district of tamale 27 Jul 2020
Food Science & Nutrition
Microbial Quality of Soups Served With “Tuo-Zaafi†Vended in the Central Business District of the Tamale Metropolis 27 Jul 2020
Journal of Food & Industrial Microbiology
Microbial quality of ready-to-eat vegetable salads vended in the central business district of Tamale, Ghana 27 Jul 2020
International Journal of Food Contamination
Aquacultural Engineering
27 Jul 2020 | 15:38
Nitrogen (N) and phosphorus (P) budgets in a bioflocs technology (BFT) aquaculture system and a recirculation aquaculture system (RAS) during over-wintering of tilapia (GIFT Oreochromis niloticus)for 64 d were compared in the current study. Fish feed was the major input of N in both systems, specifically, 94±0 % and 82±4 % for the RAS and BFT aquaculture system, respectively. The rate of N recovery in the BFT aquaculture systems was estimated to be 48±5 % of input N, which was significantly different from that of the RAS (37±4 %). There was no significant difference between the RASs and BFT aquaculture systems in terms of P recovery rate. The regular backwashing of the drum filter and biological filter in RAS accounted for 41±2 % of input N and 39±2 % of input P. Approximately 54 % of unassimilated nitrogen N was removed by nitrification in the BFT aquaculture systems. The results from the present study suggest that nitrification may be the dominant pathway for ammonia removal in a BFT aquaculture system rather than by heterotrophic bacterial assimilation.