利用反制革法降低制革工业中污染物对皮革物理性能的影响

Q4 Engineering
Heru Budi SUSANTO, Swatika JUHANA
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引用次数: 0

摘要

本研究的目的是根据pH值的顺序进行反向晒黑,从而减少因pH值调节过程而导致的化学品和水的使用。反制革方法将使制革过程更快,减少许多化学品的使用,从而大大减少制革过程中释放的污染物负荷。传统的皮革鞣制从BHO (Beam House Operation)过程、鞣制、鞣制后和整理开始,经过许多过程;这个过程是通过14-15个步骤的过程,产生大量的污染物。这是因为在传统的皮革加工中,进行了许多来回的pH调节过程。在本研究中,皮革加工步骤是根据鞣制过程的pH值来排序的,化学物质和过程的pH值是由过程步骤的顺序来调节的,以避免一些重复的酸化和碱化/中和在传统的皮革加工。这个过程开始于浸泡,石灰,肉质,划界,鞣制,染色,加脂和铬鞣制。这个过程开始于pH值为11的碱性,结束于pH值为3.8的酸性。铬鞣是在铬含量为2%、3%、4%的情况下进行的。结果表明,铬含量为4%时,皮革的最高Ts值为103℃,抗拉强度为39.86 N,撕裂强度为13.19 N/mm,接缝强度为12.8 N/mm,伸长率为46.87%,Cr含量(VI)为1.68 ppm。这些结果符合ISO/TR 20879:2007鞋类标准。不通过添加溶液和盐来来回调节pH值,从pH值高到pH值低的反制革工艺,减少了皮革制革过程中的液体浪费。因此,这个过程可以减少液体废物或污染物的数量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Reduction of Pollutants in the Tanning Industry Using the Reverse Tanning Method against the Physical Properties of Leather
This study aims to tan the skin with reverse tanning based on the order of pH, thereby reducing the use of chemicals and water due to the pH regulation process. The reverse tanning method will result in a faster tanning process and reduce the use of many chemicals, so that the pollutant load released from the tanning process will be much reduced. Conventional leather tanning is carried out through many processes starting from the BHO (Beam House Operation) process, tanning, post-tanning, and finishing; this process is carried out through a 14-15 step process that produces a large number of pollutants. This is because in conventional leather processing a lot of pH adjustment processes are carried out that go back and forth. In this study the leather processing steps were ordered based on the pH of the tanning process, the chemicals and the pH of the process were regulated by the sequence of the process steps to avoid some repeated acidification and basification/neutralization as in conventional leather processing. The process begins with soaking, liming, fleshing, deliming, tanning, dyeing, fatliquoring, and chrome tanning. This process begins with an alkaline pH of 11 and ends with an acidic pH of 3.8. Chrome tanning is done with variations in the amount of chrome of 2%, 3%, 4%. The results showed that leather with 4% chromium produced the highest Ts of 103 °C, tensile strength of 39.86 N, tearing strength of 13.19 N/mm, seam strength of 12.8 N/mm, elongation of 46.87%, Cr content (VI) 1.68 ppm. These results have met the standard ISO/TR 20879:2007 Footwear. The reverse tanning process with a process from high to low pH without adjusting the pH back and forth by adding solutions and salts means reducing liquid waste in the leather tanning process. So, this process can reduce the amount of liquid waste or pollutants.
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来源期刊
Leather and Footwear Journal
Leather and Footwear Journal Engineering-Industrial and Manufacturing Engineering
CiteScore
0.90
自引率
0.00%
发文量
14
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