Chemical Industry and Engineering Progress ›› 2025, Vol. 44 ›› Issue (4): 2068-2080.DOI: 10.16085/j.issn.1000-6613.2024-0526
• Materials science and technology • Previous Articles Next Articles
YUE Lei1(
), LI Peilong1,2, DING Zhan3,4,5(
), XIA Lei1, AN Linyu3,4,5
Received:2024-04-01
Revised:2024-06-04
Online:2025-05-07
Published:2025-04-25
Contact:
DING Zhan
岳磊1(
), 栗培龙1,2, 丁湛3,4,5(
), 夏雷1, 安琳玉3,4,5
通讯作者:
丁湛
作者简介:岳磊(1997—),男,博士研究生,研究方向为高性能环保型道路材料。E-mail:yuelei@chd.edu.cn。
基金资助:CLC Number:
YUE Lei, LI Peilong, DING Zhan, XIA Lei, AN Linyu. Research progress on characterization methods of diffusion behavior of asphalt rejuvenators[J]. Chemical Industry and Engineering Progress, 2025, 44(4): 2068-2080.
岳磊, 栗培龙, 丁湛, 夏雷, 安琳玉. 沥青再生剂扩散行为表征方法研究进展[J]. 化工进展, 2025, 44(4): 2068-2080.
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| 种类 | 相对密度 | 黏度/Pa·s | 60℃运动黏度/mm2·s-1 | 参考文献 |
|---|---|---|---|---|
| 基质沥青 | 1.017(25℃) | 0.80(135℃) | — | [ |
| 回收沥青 | 1.012(15℃) | 1574(60℃) | — | [ |
| 石油基再生剂 | 0.932(15℃) | 2.41(60℃) | — | [ |
| 废机油再生剂 | 0.970(25℃) | — | 75.91×10-6 | [ |
| 生物油 | 0.940(15℃) | 0.074(60℃) | — | [ |
| 生物基再生剂 | 0.938(15℃) | — | 103 | [ |
| 种类 | 相对密度 | 黏度/Pa·s | 60℃运动黏度/mm2·s-1 | 参考文献 |
|---|---|---|---|---|
| 基质沥青 | 1.017(25℃) | 0.80(135℃) | — | [ |
| 回收沥青 | 1.012(15℃) | 1574(60℃) | — | [ |
| 石油基再生剂 | 0.932(15℃) | 2.41(60℃) | — | [ |
| 废机油再生剂 | 0.970(25℃) | — | 75.91×10-6 | [ |
| 生物油 | 0.940(15℃) | 0.074(60℃) | — | [ |
| 生物基再生剂 | 0.938(15℃) | — | 103 | [ |
| 制样容器 | 分层截取间距/mm | 段数 | 扩散时间/min | 扩散温度/℃ | 参考文献 |
|---|---|---|---|---|---|
| 玻璃试管 | 100① | 3 | 60、120、180、240、300、360、600 | 130、140、150、160、170、180 | [ |
| 针入度模具 | — | 1 | 20、60、120、180、240 | 100 | [ |
| 动态剪切流变仪(DSR) 扩散模具 | — | 1 | 240 | 100 | [ |
| 铝管 | 30① | 3 | 10 | 135 | [ |
| 玻璃试管 | 30② | 1 | 30、60、120、180、240 | 130 | [ |
| 铝管 | 20② | 4 | 2880、5760、11520 | 160 | [ |
| 试管 | 10① | 3 | 60、120、180、240 | 140、150、160、170 | [ |
| 软化点模具 | — | 1 | 60、120、180、240 | 5、60、100 | [ |
| 制样容器 | 分层截取间距/mm | 段数 | 扩散时间/min | 扩散温度/℃ | 参考文献 |
|---|---|---|---|---|---|
| 玻璃试管 | 100① | 3 | 60、120、180、240、300、360、600 | 130、140、150、160、170、180 | [ |
| 针入度模具 | — | 1 | 20、60、120、180、240 | 100 | [ |
| 动态剪切流变仪(DSR) 扩散模具 | — | 1 | 240 | 100 | [ |
| 铝管 | 30① | 3 | 10 | 135 | [ |
| 玻璃试管 | 30② | 1 | 30、60、120、180、240 | 130 | [ |
| 铝管 | 20② | 4 | 2880、5760、11520 | 160 | [ |
| 试管 | 10① | 3 | 60、120、180、240 | 140、150、160、170 | [ |
| 软化点模具 | — | 1 | 60、120、180、240 | 5、60、100 | [ |
| 评价方法 | 优点 | 缺点 |
|---|---|---|
| 浸泡法 | 扩散容器多样,制样简易,操作简单 | 样品数量与扩散容器有关,试验离散性较大 |
| 分层萃取技术 | 考虑了实际再生条件,如集料表观特性、机械拌和工艺 | 受萃取剂、RAP材料特性影响大 |
| 表面润湿法 | 适用于模拟再生剂在老化沥青接触面的即时扩散状态,测量快速 | 仪器需配备温控功能,考察的影响因素较少 |
| 示踪技术 | 利用特殊标记物追踪再生剂的扩散 | 易受示踪剂性质影响 |
| 分子动力学模拟 | 设置温度、时长等参数模拟再生剂组分和沥青代表性分子之间的扩散行为 | 再生剂、老化沥青分子模型的建立和扩散模型的选取均会影响扩散状态的模拟精度 |
| 评价方法 | 优点 | 缺点 |
|---|---|---|
| 浸泡法 | 扩散容器多样,制样简易,操作简单 | 样品数量与扩散容器有关,试验离散性较大 |
| 分层萃取技术 | 考虑了实际再生条件,如集料表观特性、机械拌和工艺 | 受萃取剂、RAP材料特性影响大 |
| 表面润湿法 | 适用于模拟再生剂在老化沥青接触面的即时扩散状态,测量快速 | 仪器需配备温控功能,考察的影响因素较少 |
| 示踪技术 | 利用特殊标记物追踪再生剂的扩散 | 易受示踪剂性质影响 |
| 分子动力学模拟 | 设置温度、时长等参数模拟再生剂组分和沥青代表性分子之间的扩散行为 | 再生剂、老化沥青分子模型的建立和扩散模型的选取均会影响扩散状态的模拟精度 |
| 方法 | 评价指标 | 特点 |
|---|---|---|
| 扩散系数法 | 均方位移、扩散系数 | 直接衡量再生剂在老化沥青某一界面的扩散速度,计算公式较多 |
| 性能指标法 | 针入度、延度、软化点、黏度、润湿功、润湿速度和润湿时间表面能参数;流变学参数 | 样品需求量较大,测试精度受测试仪器、人为主观因素影响较大,具有一定局限性,难以反映再生剂在老化沥青中的扩散过程 |
| 化学分析法 | 分子尺寸及分布、组分比例、特征官能团指数 | 样品需求量较少,受测试环境、人为因素影响较小,对仪器设备要求较高 |
| 可视化图像法 | 灰度值、表面粗糙度、峰面积比和平均面积 | 直观显示某一扩散状态下再生剂在老化沥青中的分布位置,试验成本较高,制样、试验操作较复杂 |
| 方法 | 评价指标 | 特点 |
|---|---|---|
| 扩散系数法 | 均方位移、扩散系数 | 直接衡量再生剂在老化沥青某一界面的扩散速度,计算公式较多 |
| 性能指标法 | 针入度、延度、软化点、黏度、润湿功、润湿速度和润湿时间表面能参数;流变学参数 | 样品需求量较大,测试精度受测试仪器、人为主观因素影响较大,具有一定局限性,难以反映再生剂在老化沥青中的扩散过程 |
| 化学分析法 | 分子尺寸及分布、组分比例、特征官能团指数 | 样品需求量较少,受测试环境、人为因素影响较小,对仪器设备要求较高 |
| 可视化图像法 | 灰度值、表面粗糙度、峰面积比和平均面积 | 直观显示某一扩散状态下再生剂在老化沥青中的分布位置,试验成本较高,制样、试验操作较复杂 |
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