1) soybean hull peroxidase豆殼過氧化物酶 1.The effects of affinity ligand (polyethylene glycol (PEG)- iminodiacetic acid (IDA)-Cu(II)) on the affinitypartition of soybean hull peroxidase (SHP) were investigated in different types of aqueous two-phase systems. 采用雙水相金屬螯合親和萃取法從豆殼中分離過氧化物酶,考察了豆殼過氧化物酶在不同類型雙水相系統中金屬螯合親和配基聚乙二醇(PEG)-亞氨基二乙酸(IDA)-Cu(Ⅱ)對親和分配的影響,發現PEG/羥丙基淀粉(PES)系統適合于金屬螯合親和分配豆殼過氧化物酶。
2) soybean coat豆殼
3) modified soybean hull改性豆殼 1.The sorption behaviors of Cu (II) and malachite green (MG) from aqueous solution onto modified soybean hull (MSH) were investigated in a batch system. 報道了一種功能基為磷酸羥基的酯化豆殼陽離子吸附劑的固相制備技術,研究了銅離子和孔雀綠在改性豆殼上的吸附行為.采用靜態批次試驗研究了不同實驗參數(pH值、吸附劑用量、吸附質濃度和吸附時間)對銅和染料吸附的影響.銅離子和孔雀綠分別在pH≥3.0和6.0時達到最大吸附值.對于濃度為100mg·L-1的銅溶液,5.0g·L-1及以上的改性豆殼能去除91%以上的銅;改性豆殼用量≥2.0g·L-1時,能去除濃度為250mg·L-1的溶液中95%以上的孔雀綠.改性豆殼對銅離子和孔雀綠的吸附符合Langmuir吸附等溫線模型,最大吸附能力分別為31.55mg·g-1和178.57mg·g-1.對銅離子和孔雀綠的吸附分別在75min和7h達到吸附平衡,準一級反應動力學方程和準二級反應動力學方程能分別描述銅離子和孔雀綠在改性豆殼上的吸附過程。
4) mungbean hull綠豆殼 1.The optimal extracting technological conditions of flavonoids from mungbean hull were studied. 采用低濃度AlCl3為顯色劑紫外吸收光譜法測定黃酮的含量,研究了以乙醇作為提取劑提取綠豆殼中黃酮類物質的最優提取工藝。
5) activated carbon蠶豆殼 1.The mew processing of manufacturing of activated carbon from broad bean shell leached with zinc chloride by microwave radiation has been reported. 研究了微波輻照蠶豆殼制造活性炭新工藝.實驗結果表明,微波工藝所需時間僅為傳統工藝的1/45 ,而所得活性炭產品的亞甲藍脫色力為國家標準一級品(LY216 - 79) 的1-5 倍