昆虫学报 ›› 2025, Vol. 68 ›› Issue (4): 450-462.doi: 10.16380/j.kcxb.2025.04.007

• 研究论文 • 上一篇    下一篇

“菌-生物炭-黑水虻互作”高效生物转化金霉素菌渣体系优化策略

雷澳杰, 裴亚欣*, 杨森, 孙梦晓, 段依琳, 张继冉, 陈红歌   

  1. (河南农业大学生命科学学院, 郑州 450046)
  • 出版日期:2025-04-20 发布日期:2025-05-22

Optimization strategies of the “bacteria-biochar-Hermetia illucens interaction” system for highly efficient bioconversion of chlortetracycline fermentation residue

LEI Ao-Jie, PEI Ya-Xin*, YANG Sen, SUN Meng-Xiao, DUAN Yi-Lin, ZHANG Ji-Ran, CHEN Hong-Ge   

  1.  (School of Life Sciences, Henan Agricultural University, Zhengzhou 450046, China)
  • Online:2025-04-20 Published:2025-05-22

摘要: 【目的】构建高效“菌-生物炭-黑水虻Hermetia illucens互作”转化体系,探究基质配比、黑水虻幼虫接入密度、生物炭、功能微生物等因素组合策略对黑水虻转化金霉素菌渣体系的影响。【方法】黑水虻幼虫由麦麸饲养至3龄后,分别设置不同质量配比的金霉素菌渣与小麦秸秆接入比(菌渣∶秸秆=0∶1, 1∶2, 1∶4, 1∶8, 1∶12和1∶20)、幼虫密度(幼虫数量:物料质量=0.6∶1, 0.8∶1, 1∶1, 2∶1, 4∶1, 6∶1, 8∶1和10∶1)、生物炭接入量(0, 30, 60, 90, 120, 150和180 g/kg)、功能菌(斯氏普罗威登斯菌Providencia stuartii TX2、肺炎克雷伯菌Klebsiella pneumoniae TX1、贝莱斯芽孢杆菌Bacillus velezensis EEAM 10B)以及混合添加组别,测定不同组别中黑水虻幼虫的生长发育标(体重、体长和体宽),基质转化指标(基质消耗率和基质转化率)及基质中的金霉素去除率。【结果】在最优“菌-生物炭-黑水虻互作”菌渣转化体系下,即菌渣∶秸秆为1∶4、幼虫密度为4∶1、生物炭添加比例为120 g/kg、存在斯氏普罗威登斯菌TX2时,幼虫的体重、体长、体宽分别达到0.17 g/头、18.27 mm和4.83 mm,基质消耗率和基质转化率分别达到34.04%和29.50%,同时基质中的金霉素去除率提高至96.23%。【结论】通过构建“菌-生物炭-黑水虻互作”高效抗生素菌渣生物转化体系,将两种有机固废物转化成高值昆虫蛋白,同时提高了基质中金霉素去除率。

关键词: 黑水虻, 金霉素菌渣, 秸秆, 生物炭, 功能微生物

Abstract: 【Aim】To establish a highly efficient “bacteria-biochar-Hermetia illucens interaction” conversion system and explore the effects of combination strategies, such as substrate ratio, density of H. illucens larvae, biochar, and functional microbes, on the system for converting chlortetracycline fermentation residues of H. illucens. 【Methods】H. illucens larvae were reared to the 3rd instar with wheat bran. Then, different mass ratios of chlortetracycline fermentation residues to wheat straw (chlortetracycline fermentation residues∶ wheat straw=0∶1, 1∶2, 1∶4, 1∶8, 1∶12 and 1∶20), larval densities (larval number∶ substrate mass=0.6∶1, 0.8∶1, 1∶1, 2∶1, 4∶1, 6∶1, 8∶1 and 10∶1), biochar addition (0, 30, 60, 90, 120, 150 and 180 g/kg), functional bacteria (Providencia stuartii TX2, Klebsiella pneumoniae TX1, and Bacillus velezensis EEAM 10B), and mixed addition groups were set up. The growth and development indices of H. illucens larvae (body weight, body length, and body width), substrate conversion indices (substrate consumption rate and substrate conversion rate), and chlortetracycline removal rate in the substrate were measured. 【Results】In the optimal “bacteria-biochar-H. illucens interaction” conversion system for chlortetracycline fermentation residues, with a chlortetracycline fermentation residue to straw ratio of 1∶4, a larval density of 1∶4, a biochar addition ratio of 120 g/kg, and the presence of P. stuartii TX2, the larval weight, length and width of H. illucens reached 0.17 g/individual, 18.27 mm and 4.83 mm, respectively. Additionally, in the optimal “bacteria-biochar-H. illucens interaction” conversion system, the substrate consumption rate and substrate conversion rate reached 34.04% and 29.50%, respectively, while the chlortetracycline removal rate in the substrate increased to 96.23%. 【Conclusion】Through the optimization of the highly efficient “bacteria-biochar-H. illucens interaction” conversion system for antibiotic fermentation residues, two types of organic solid waste were converted into high-value insect protein, while the chlortetracycline removal rate in the substrate was improved.

Key words: Hermetia illucens, chlortetracycline fermentation residue, wheat straw, biochar, functional microbes