Unlocking synergies: Enhancing bioremediation, growth, and physiological responses of Penaeus vannamei co-cultured with seaweed

IF 4.5 2区 生物学 Q1 BIOTECHNOLOGY & APPLIED MICROBIOLOGY Algal Research-Biomass Biofuels and Bioproducts Pub Date : 2025-01-01 Epub Date: 2024-11-27 DOI:10.1016/j.algal.2024.103816
G. Harini , Madhuri S. Pathak , Sukham Munilkumar , Kapil S. Sukhdhane , Thongam Ibemcha Chanu , Amjad K. Balange , K. Jeena
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Abstract

Seaweeds, an inorganic extractive species in the Integrated multi-trophic aquaculture (IMTA) system, offer the potential for mitigating coastal pollution and a source of nutrition aligning with Sustainable Development Goals. A co-culture strategy was hypothesized to address rising concerns over intensive shrimp farming, limited suitable seaweed cultivation areas, and production optimization. Initially, locally available seaweeds along the Maharashtra coast were screened, followed by co-culture with P. vannamei with selected seaweed to evaluate production performance and physiological responses in zero-water exchange system. The first four-week study was conducted in shrimp wastewater with six different seaweeds, where Gracilaria foliifera performed best with significant (p < 0.05) improvement in nutrient uptake efficiency (Total ammoniacal nitrogen- 64 %, Phosphate- 99.87 %, Nitrite-32 %, Nitrate-13 %) and yield (4.56 kg m−3), enhanced elemental profile, biochemical composition, and pigments. A further optimization study of G. foliifera in shrimp wastewater for 96 h identified the optimal stocking density of 1–3.5 gL−1, based on nutrient uptake efficiency (TAN- 61 %, PO4–72 %, NO2–48 %, NO3–27 %). In the second experiment, considering the highest uptake, G. foliifera stocking density was maintained at 3.5 gL−1, and different stocking densities of P. vannamei (20, 40, 60, 80, 100 nos. m−2) were assessed with two controls, shrimp monoculture and Gracilaria monoculture. Results showed that co-culturing P. vannamei at 20 nos.m−2 followed by 60 nos.m−2 with G. foliifera at 3.5 gL−1 yielded the highest mean weight gain, specific growth rate, and production with low feed conversion ratio, while also improving water quality. The co-culture system also led to lower stress enzyme levels, reduced serum glucose and cholesterol, and normal histological observations in the hepatopancreas compared to monoculture. This study suggests that the co-culture of P. vannamei at 60 nos.m−2 with G. foliifera at 1–3.5 gL−1 proved superior without compromising productivity and physiological responses over monoculture in a sustainable manner.

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释放协同效应:增强与海藻共培养的凡纳滨对虾的生物修复、生长和生理反应
海藻是综合多营养水产养殖(IMTA)系统中的一种无机提取物种,具有减轻沿海污染的潜力,也是符合可持续发展目标的营养来源。提出了一种共同养殖策略,以解决对集约化虾养殖、有限的海藻适宜养殖面积和生产优化的日益关注。首先,筛选了马哈拉施特拉邦沿海地区当地可用的海藻,然后与vannamei与选定的海藻共培养,以评估零水交换系统中的生产性能和生理反应。第一个为期四周的研究是在虾废水中进行的,使用了六种不同的海藻,其中江蓠(Gracilaria foliifera)表现最好,显著(p <;0.05)提高了养分吸收效率(总氨态氮- 64%,磷酸盐- 99.87%,亚硝酸盐- 32%,硝酸盐- 13%)和产量(4.56 kg m -3),增强了元素剖面、生化组成和色素。在对虾废水处理96 h的优化研究中,以养分吸收效率(TAN- 61%, po4 - 72%, no2 - 48%, no3 - 27%)为基础,确定了1 - 3.5 gL−1的最佳放养密度。在第二个试验中,考虑到叶面虾的最高吸收量,将叶面虾的放养密度维持在3.5 gL−1,并以单养对虾和单养江蓠为对照,评估其不同放养密度(20、40、60、80、100 no . m−2)。结果表明,在3.5 gL−1的条件下,分别以20 nos m−2和60 nos m−2与叶面草共培养,获得了最高的平均增重、特定生长率和较低的饲料系数,并改善了水质。与单一培养相比,共培养系统还导致应激酶水平降低,血清葡萄糖和胆固醇降低,肝胰腺组织学观察正常。本研究表明,在不影响产量和生理反应的情况下,60 no .m - 2的南美扁豆与1 - 3.5 gL - 1的叶面扁豆共培养在可持续方式上优于单一栽培。
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来源期刊
Algal Research-Biomass Biofuels and Bioproducts
Algal Research-Biomass Biofuels and Bioproducts BIOTECHNOLOGY & APPLIED MICROBIOLOGY-
CiteScore
9.40
自引率
7.80%
发文量
332
期刊介绍: Algal Research is an international phycology journal covering all areas of emerging technologies in algae biology, biomass production, cultivation, harvesting, extraction, bioproducts, biorefinery, engineering, and econometrics. Algae is defined to include cyanobacteria, microalgae, and protists and symbionts of interest in biotechnology. The journal publishes original research and reviews for the following scope: algal biology, including but not exclusive to: phylogeny, biodiversity, molecular traits, metabolic regulation, and genetic engineering, algal cultivation, e.g. phototrophic systems, heterotrophic systems, and mixotrophic systems, algal harvesting and extraction systems, biotechnology to convert algal biomass and components into biofuels and bioproducts, e.g., nutraceuticals, pharmaceuticals, animal feed, plastics, etc. algal products and their economic assessment
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