The blend (wax M) of crude by-product polyolefin wax (wax K) and a fractionated commercial paraffin wax (wax J) was suggested to replace the wax J as a coating agent for wax-coated papers. The rheological properties of waxes J, K, and M were examined and compared. The correlation between viscosity and shear rate applied on these waxes maintained at 90 ^oC and 130 ^oC was identified. In particular, this paper, for the first time, presented non-Newtonian shear thinning behavior of not only wax K but also its blend of wax M in terms of their viscosity affected by shear rate at an operating temperature below their melting temperature of higher-melting-temperature DSC endothermic peaks (HMTEPs). They showed non-Newtonian behavior, so-called shear thinning behavior, at 90 ^oC in the light of characteristics of both suspension systems and polymer systems. In addition, the profiles of viscosity at 130 ^oC of all the waxes versus the shear rate exhibited Newtonian fluid behavior. Wax J also showed the behavior of a dilatant fluid. Then, the physical properties including water vapor transmission rates (WVTR), surface roughness, and coated weights, of thin papers coated with waxes J (WJP), K (WKP), and M (WMP) were evaluated, characterized, and compared. As a result, WMP had an equivalent value to that of WJP or the lowest value among wax-coated papers in terms of WVTR. The surface roughness and the barrier property of WVTR were minimized and enhanced, respectively, by blending waxes J and K. The additional physical properties, including dynamic contact angles, surface tension, wet and dry tensile strength, optical examination of the wax-coated fiber structure, and antimicrobial properties of the wax-coated papers, were evaluated. The excellent antimicrobial properties of clinoptilolite added to wax J or wax M appeared.

建议用粗副产品聚烯烃蜡（蜡 K）和分馏的商业石蜡（蜡 J）的混合物（蜡 M）代替蜡 J 作为涂蜡纸的涂层剂。检查并比较了蜡 J、K 和 M 的流变特性。确定了粘度和施加在这些蜡上的剪切速率之间的相关性，这些蜡保持在 90 ^o C 和 130 ^o C。特别是，本文首次展示了蜡 K 和蜡 M 混合物的非牛顿剪切稀化行为，它们的粘度受剪切速率的影响，操作温度低于其较高的熔化温度 -熔融温度 DSC 吸热峰 (HMTEP)。他们表现出非牛顿行为，即所谓的剪切稀化行为，在 90 ^oC 根据悬浮系统和聚合物系统的特性。此外，在 130 ^{o 时}的粘度曲线所有蜡的 C 与剪切速率的关系都表现出牛顿流体行为。蜡 J 还显示了膨胀流体的行为。然后，评估、表征和比较涂有蜡 J (WJP)、K (WKP) 和 M (WMP) 的薄纸的物理性能，包括水蒸气透过率 (WVTR)、表面粗糙度和涂层重量。因此，就 WVTR 而言，WMP 具有与 WJP 相当的值或蜡涂层纸中最低的值。通过混合蜡 J 和 K，WVTR 的表面粗糙度和阻隔性能分别被最小化和增强。 额外的物理性能，包括动态接触角、表面张力、湿和干拉伸强度、蜡涂层纤维的光学检查对涂蜡纸的结构和抗菌性能进行了评估。