Tyramine Adsorption Using the Modification of Takari Natural Sand-Based Silica with Bovine Serum Albumin (BSA)

Johnson Naat, Yantus A. B. Neolaka, Yosep Lawa, Petrus Noni̇ng, Ayu W.m Menno, R. Rosni̇ta, Fransiskus B.o. Weo, Dewi Lestarani, Sri Sugiarti, Diah Iswanti̇ni̇
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Abstract

In this article, we use a batch method to convey tyramine adsorption by modifying Takari natural sand-based silica with BSA and tyramine adsorption. The research stages include the optimization of adsorbent mass, pH, temperature, determination of the isotherm model, and thermodynamic parameters of tyramine adsorption. The tyramine concentration was determined using UV-Vis. The characterizations carried out were functional groups using FT-IR and surface morphology using SEM. The results of FT-IR characterization demonstrated the success of BSA modification, as observed in the C-H, N-H, and C-N groups, which are the typical functional groups of BSA. The SEM image of SiO2@BSA before tyramine adsorption revealed unevenly sized particles, uneven distribution, and agglomeration, leading to larger particles. The morphology of SiO2@BSA-tyramine appeared to be more uniform, exhibiting a smoother shape with a slightly uneven surface. The optimum pH was 5 (qe=11.74 mg/g), and the optimum temperature was 303 K (qe= 2.47 mg/g). The isotherm study showed that the adsorption adhered to the Redlich-Peterson isotherm model with an R2 value of 0.987 (qe=5.157 mg/g and n =3.759). The thermodynamic study demonstrated ∆Ho = 49.08 kJ/mol, ∆Go =-17.84; -20.05 and -22.26 kJ/mol, and ∆So =0.22 kJ/mol.K. These results indicated that the tyramine adsorption process on SiO2@BSA adsorbent occurred endothermically and spontaneously at the temperature of 303 K, and the adsorption was of a physical-chemical adsorption type.
利用牛血清白蛋白 (BSA) 对 Takari 天然砂基二氧化硅进行改性来吸附酪胺
本文采用批次法,通过对 Takari 天然砂基硅石进行 BSA 改性并吸附酪胺,来传递酪胺吸附。研究阶段包括吸附剂质量、pH 值、温度的优化,等温线模型和酪胺吸附热力学参数的确定。使用紫外可见光谱测定了酪胺浓度。利用傅立叶变换红外光谱和扫描电子显微镜进行了官能团表征和表面形貌表征。傅立叶变换红外光谱的表征结果表明,BSA 的典型官能团 C-H、N-H 和 C-N 基团成功地进行了修饰。SiO2@BSA吸附酪胺前的扫描电镜图像显示,颗粒大小不均、分布不均、团聚,导致颗粒变大。SiO2@BSA-tyramine 的形态似乎更加均匀,形状更加平滑,表面略有凹凸。最佳 pH 值为 5(qe=11.74 毫克/克),最佳温度为 303 K(qe=2.47 毫克/克)。等温线研究表明,吸附符合 Redlich-Peterson 等温线模型,R2 值为 0.987(qe=5.157 毫克/克,n =3.759)。热力学研究表明 ∆Ho = 49.08 kJ/mol,∆Go =-17.84; -20.05 和 -22.26 kJ/mol,∆So =0.22 kJ/mol.K。这些结果表明,SiO2@BSA 吸附剂对酪胺的吸附过程是在 303 K 温度下自发发生的,属于物理化学吸附类型。
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