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皮革废料的水解、碳化及微生物处理用于通过黑麦草种植实现氮回收

Leather Waste Hydrolysation, Carbonization, and Microbial Treatment for Nitrogen Recovery by Ryegrass Cultivation.

作者信息

Kuligowski Ksawery, Skrzypczak Dawid, Mikula Katarzyna, Chojnacka Katarzyna, Bandrów Paulina, Tylingo Robert, Mania Szymon, Woźniak Adrian, Cenian Adam

机构信息

Department of Physical Aspects of Ecoenergy, The Institute of Fluid-Flow Machinery Polish Academy of Sciences, Fiszera 14 St., 80-231 Gdańsk, Poland.

Department of Advanced Material Technology, Faculty of Chemistry, Wroclaw University of Science and Technology, M. Smoluchowskiego 25 St., 50-372 Wroclaw, Poland.

出版信息

Materials (Basel). 2024 Nov 23;17(23):5741. doi: 10.3390/ma17235741.

Abstract

Leather waste contains up to 10% nitrogen (N); thus, combustion or gasification only for the energy recovery would not be rational, if safety standards are met. On the other hand, the chromium (Cr) content exceeding 5% in half of the waste stream (/) is too significant to be applied in agriculture. In this work, four acid hydrolysates from leather waste shavings, both wet-white free of Cr and wet-blue with Cr, were used: two with a mixture of acids and supplemented with Cu, Mn, and Zn, and the other two as semi-products from collagen extraction using hydrochloric acid. Additionally wet-green leather waste shavings, e.g., impregnated with olive extract, were used followed by the two treatments: amendment with a biochar from "wet white" leather waste shavings and amendment with this biochar incubated with the commercial phosphorus stimulating microbial consortia BactoFos. They were applied as organic nitrogen-based fertilizers in a glasshouse experiment, consisting of 4-5 subsequent harvests every 30 days, under spring-autumn conditions in northern Poland. Biochar-amended wet-greens provided the highest nitrogen use efficiencies, exceeding 100% after 4 months of growth (for 20 kg N/ha) and varying from 17% to 37% in particular months. This is backed up by another parameter (relative agronomic effectiveness) that for these materials exceeded 150% for a single month and in total was around 33%. Biochar amendments significantly increased agronomic parameters for wet-greens, and their microbial treatment enhanced them even further. Recycling this type of waste can replace inorganic fertilizers, reducing greenhouse gas emissions and carbon footprint.

摘要

皮革废料含有高达10%的氮(N);因此,如果符合安全标准,仅为回收能源而进行燃烧或气化是不合理的。另一方面,在一半的废物流(/)中铬(Cr)含量超过5%,这一含量过高,无法用于农业。在这项研究中,使用了来自皮革废料刨花的四种酸性水解产物,包括不含铬的湿白皮和含铬的湿蓝皮:两种是混合酸水解产物,并添加了铜、锰和锌,另外两种是用盐酸提取胶原蛋白的半成品。此外,还使用了浸渍有橄榄提取物的湿绿皮革废料刨花,随后进行两种处理:用“湿白皮”皮革废料刨花制成的生物炭进行改良,以及用这种生物炭与商业磷刺激微生物群落BactoFos一起培养后进行改良。在波兰北部春秋季条件下的温室试验中,将它们作为有机氮肥施用,每30天进行4 - 5次连续收获。用生物炭改良的湿绿皮革废料提供了最高的氮利用效率,生长4个月后(施氮量为20 kg/ha)超过100%,在特定月份从17%到37%不等。这得到了另一个参数(相对农学效率)的支持,该参数对于这些材料在单个月份超过150%,总体约为33%。生物炭改良显著提高了湿绿皮革废料的农学参数,而对其进行微生物处理则进一步提高了这些参数。回收这类废料可以替代无机肥料,减少温室气体排放和碳足迹。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/e9b3/11642390/44bd5eebee2c/materials-17-05741-g001.jpg

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