磁场与材料协同对碳酸钙晶体动态生长的影响

doi:10.16085/j.issn.1000-6613.2024-1788

化工进展 ›› 2025, Vol. 44 ›› Issue (12): 7045-7056.DOI: 10.16085/j.issn.1000-6613.2024-1788

• 材料科学与技术 • 上一篇

磁场与材料协同对碳酸钙晶体动态生长的影响

蒋华义¹(), 郭智杰¹, 梁爱国², 刘冬冬², 巨怡怡³, 朱秋波², 于倩²

^1.西安石油大学管道工程学院，陕西西安 710065
^2.克拉玛依红山油田有限责任公司，新疆克拉玛依 834000
^3.克拉玛依市富城油砂矿资源开发有限责任公司，新疆克拉玛依 834000

收稿日期:2024-11-04 修回日期:2025-02-19 出版日期:2025-12-25 发布日期:2026-01-06
通讯作者: 蒋华义
作者简介:蒋华义（1973—），男，博士，教授，研究方向为油气储运工程。E-mail：hyjiang@xsyu.edu.cn。
基金资助:
陕西省自然科学基金面上项目(2024JC-YBMS-401);克拉玛依红山油田有限责任公司“2024年红003井区地面集输系统水质硬度调节装置研究与应用项目”(S-2024-JS-007)

Synergic influence of magnetic field and material on dynamic growth of calcium carbonate crystals

JIANG Huayi¹(), GUO Zhijie¹, LIANG Aiguo², LIU Dongdong², JU Yiyi³, ZHU Qiubo², YU Qian²

^1.College of Pipeline Engineering, Xi’an Shiyou University, Xi’an 710065, Shaanxi, China
^2.Karamay Hongshan Oilfield Co. , Ltd. , Karamay 834000, Xinjiang, China
^3.Karamay Fucheng Energy Group Co. , Ltd. , Karamay 834000, Xinjiang, China

Received:2024-11-04 Revised:2025-02-19 Online:2025-12-25 Published:2026-01-06
Contact: JIANG Huayi

摘要/Abstract

摘要：

为解决CaCO₃结垢造成管线堵塞问题。基于“变被动结垢为主动定点结垢除垢”的思路，本文针对某油田采出水，综合动态剪切实验以及扫描电子显微镜、接触角、表面自由能和粗糙度测试，研究磁场与材料协同作用规律以及对碳酸钙晶体动态生长的影响机理。结果表明，有/无磁场作用下各材料对失钙率和碳酸钙结垢量的影响规律性一致。无磁场作用下，失钙率和结垢量排序为聚四氟乙烯（PTFE）>玻璃钢>镀锌铁>316不锈钢>H62黄铜>PVC；磁场作用下，失钙率排序为PTFE>玻璃钢>镀锌铁>316不锈钢>H62铜>PVC，结垢量排序为PTFE>镀锌铁>玻璃钢>316不锈钢>H62铜>PVC。磁场与材料耦合作用使结垢量降低、失钙率升高以及碳酸钙成核诱导期缩短。造成这种作用的原因是磁场作用下，材料表面接触角与粗糙度降低，表面自由能增大，促进文石型CaCO₃垢物形成。磁场作用下PTFE材料与磁场耦合作用最强，当磁场强度为4000Gs，结垢材料为PTFE时，结垢量和失钙率达到最高值分别为4.84g/m²和52%，诱导期由8min缩短到2min。在50min时，结垢量降低29%，失钙率升高12%。此外，随着时间延长，材料表面接触角逐渐减小，表面自由能和表面粗糙度逐渐增大，有利于污垢在材料表面继续附着。

关键词: 协同效应, 磁场, 材料物性, 碳酸钙, 晶体, 动态生长

Abstract:

To address the issue of calcium carbonate (CaCO₃) scaling leading to pipeline blockages, this study proposed the approach of "transforming passive scaling into active localized scaling and descaling". Focusing on the produced water from an oilfield, dynamic shear experiments, along with scanning electron microscopy, contact angle measurements, surface energy, and roughness tests, were conducted to investigate the synergistic effects of magnetic fields and materials on the dynamic growth of calcium carbonate crystals. The results indicated that the material effects on calcium removal rate and calcium carbonate scaling were consistent regardless of the presence of a magnetic field. In the absence of a magnetic field, the order of calcium removal rate and scaling amount was as follows: polytetrafluoroethylene (PTFE) > fiberglass > galvanized iron > 316 stainless steel > H62 brass > PVC. When a magnetic field was applied, the calcium removal rate followed this order: PTFE > fiberglass > galvanized iron > 316 stainless steel > H62 brass > PVC, while the scaling amount follows: PTFE > galvanized iron > fiberglass > 316 stainless steel > H62 brass > PVC. The coupling effect of the magnetic field and materials resulted in a reduction in scaling amounts, an increase in calcium removal rates, and a decrease in nucleation induction periods for calcium carbonate. This can be attributed to the fact that under the influence of the magnetic field, the contact angle and roughness of the material surface decreased, while surface energy increased, promoting the formation of aragonite-type scale. Among the materials tested, PTFE exhibited the strongest interaction with the magnetic field. When the magnetic field strength reaches 4000Gs and the scaling material was PTFE, the scaling amount and calcium removal rate attained their highest values of 4.84g/m² and 52%, respectively. The induction period was reduced from 8 minutes to 2 minutes, and after 50 minutes, the scaling amount was reduced by 29%, while the calcium removal rate was increased by 12%. Moreover, with prolonged exposure time, the contact angle of the material surface gradually decreased, while surface energy and roughness increased, facilitating further attachment of scale on the material surface.

Key words: synergistic effect, magnetic field, physical properties of materials, calcium carbonate, crystal, dynamic growth

中图分类号:

TE832

蒋华义, 郭智杰, 梁爱国, 刘冬冬, 巨怡怡, 朱秋波, 于倩. 磁场与材料协同对碳酸钙晶体动态生长的影响[J]. 化工进展, 2025, 44(12): 7045-7056.

JIANG Huayi, GUO Zhijie, LIANG Aiguo, LIU Dongdong, JU Yiyi, ZHU Qiubo, YU Qian. Synergic influence of magnetic field and material on dynamic growth of calcium carbonate crystals[J]. Chemical Industry and Engineering Progress, 2025, 44(12): 7045-7056.

图/表 19

表1 实验水样离子成分表

组分类型	组分名称	浓度/mg·kg^-1
阳离子	Ca²⁺	196.24
	Mg²⁺	27.51
	Na⁺	3493.38
	K⁺	1.26
阴离子	Cl^-	5215.65
	$H C O 3 -$	1021.64
	$P O 4 3 -$	0.74
	$S O 4 3 -$	3.31

表1 实验水样离子成分表

组分类型	组分名称	浓度/mg·kg^-1
阳离子	Ca²⁺	196.24
	Mg²⁺	27.51
	Na⁺	3493.38
	K⁺	1.26
阴离子	Cl^-	5215.65
	$H C O 3 -$	1021.64
	$P O 4 3 -$	0.74
	$S O 4 3 -$	3.31

图1 动态剪切模拟实验图

图2 接触角示意图

表2 标准液参数表

标准液	表面张力/mN·m^-1
标准液	$γ L$	$γ L d$	$γ L p$
蒸馏水	72.8	21.8	51
二碘甲烷	50.8	48.5	2.3

表2 标准液参数表

标准液	表面张力/mN·m^-1
标准液	$γ L$	$γ L d$	$γ L p$
蒸馏水	72.8	21.8	51
二碘甲烷	50.8	48.5	2.3

图3 不同磁场强度下模拟水失钙率趋势图

图4 三种磁场强度下碳酸钙模拟水失钙率随时间变化趋势图

图5 有/无磁场作用下材料类型对失钙率的影响

图6 有/无磁场作用下材料类型对结垢性能的影响

图7 50min时碳酸钙模拟水实验图

图8 有/无磁场作用下不同类型材料失钙率随时间的变化规律

图9 有/无磁场作用下各材料表面析晶污垢分布及局部放大图

图10 不同时刻各材料表面接触角对结垢量的影响规律

图11 不同时刻各材料表面接触角对失钙率的影响规律

表3 标准液体的接触角汇总表

材料类型	标准液体	接触角/(°)
材料类型	标准液体	0min	10min	20min	30min	40min	50min
玻璃钢	蒸馏水	70.19	69.87	68.15	67.58	67.25	66.86
玻璃钢	二碘甲烷	45.37	44.26	43.78	43.19	42.58	42.10
玻璃钢+磁场	蒸馏水	70.19	69.13	67.85	67.1	66.76	66.20
玻璃钢+磁场	二碘甲烷	45.37	43.9	43.20	42.83	42.30	41.78
PTEF	蒸馏水	98.57	97.85	97.10	96.89	96.23	95.78
PTEF	二碘甲烷	68.20	67.50	66.18	65.30	64.90	64.00
PTEF+磁场	蒸馏水	98.57	97.26	96.87	95.69	96.17	95.19
	二碘甲烷	68.20	67.19	65.87	65.10	64.58	63.57
PVC	蒸馏水	78.95	78.56	78.15	77.87	77.56	77.31
PVC	二碘甲烷	76.25	75.21	75.16	74.89	73.29	72.89
PVC+磁场	蒸馏水	78.95	78.39	77.59	77.20	76.95	76.10
PVC+磁场	二碘甲烷	76.25	75.10	74.89	74.27	73.10	72.56
镀锌铁	蒸馏水	81.13	80.76	80.19	78.75	78.12	77.87
镀锌铁	二碘甲烷	42.13	41.56	40.85	40.28	39.89	39.20
镀锌铁+磁场	蒸馏水	81.13	79.85	79.15	78.59	77.20	76.16
镀锌铁+磁场	二碘甲烷	42.13	41.20	39.28	38.50	38.20	37.10
H62铜	蒸馏水	85.79	84.10	82.38	81.59	80.12	79.72
H62铜+磁场	二碘甲烷	43.22	42.90	42.95	42.42	42.10	41.76
H62铜+磁场	蒸馏水	85.79	83.90	81.51	79.20	77.76	76.20
316不锈钢	蒸馏水	80.79	80.27	79.56	79.20	78.56	78.10
316不锈钢	二碘甲烷	43.25	42.98	42.30	41.89	41.20	40.56
316不锈钢+磁场	蒸馏水	80.79	78.39	78.10	77.50	77.20	76.58
316不锈钢+磁场	二碘甲烷	43.25	41.28	39.89	39.50	39.10	38.56

表4 有/无磁场作用下材料表面自由能色散分量和极性分量

材料类型	表面能参数	表面能/mN·m^-1
材料类型	表面能参数	0min	10min	20min	30min	40min	50min
玻璃钢	$γ s d$	30.33	30.90	30.77	30.97	31.24	31.42
玻璃钢	$γ s p$	10.39	10.35	11.34	11.58	11.65	11.80
玻璃钢+磁场	$γ s d$	30.33	30.93	31.03	31.07	31.28	31.44
玻璃钢+磁场	$γ s p$	10.39	10.74	11.40	11.81	11.91	12.16
PTEF	$γ s d$	22.38	22.68	23.39	23.92	24.04	24.53
PTEF	$γ s p$	1.55	1.66	1.70	1.66	1.79	1.81
PTEF+磁场	$γ s d$	22.38	22.76	23.54	23.79	24.24	24.69
PTEF+磁场	$γ s p$	1.55	1.78	1.73	1.97	1.77	1.93
PVC	$γ s d$	13.85	14.34	14.30	14.40	15.23	15.41
PVC	$γ s p$	13.26	13.19	13.48	13.59	13.28	13.32
PVC+磁场	$γ s d$	13.85	14.38	14.36	14.63	15.23	15.38
PVC+磁场	$γ s p$	13.26	13.28	13.80	13.88	13.66	14.12
镀锌铁	$γ s d$	34.96	35.20	35.46	35.41	35.46	35.79
镀锌铁	$γ s p$	4.07	4.15	4.29	4.84	5.08	5.09
镀锌铁+磁场	$γ s d$	34.96	35.17	36.08	36.37	36.17	36.49
镀锌铁+磁场	$γ s p$	4.07	4.49	4.53	4.68	5.26	5.60
H62铜	$γ s d$	35.55	35.29	34.81	34.91	34.71	34.81
H62铜	$γ s p$	2.47	3.02	3.67	3.92	4.49	4.62
H62铜+磁场	$γ s d$	35.55	35.61	35.09	35.18	35.72	35.58
H62铜+磁场	$γ s p$	2.47	3.02	3.91	4.73	5.15	5.82
316不锈钢	$γ s d$	34.21	34.23	34.45	34.60	34.83	35.08
316不锈钢	$γ s p$	4.36	4.55	4.77	4.87	5.06	5.18
316不锈+磁场	$γ s d$	34.21	34.74	35.46	35.52	35.67	35.80
316不锈+磁场	$γ s p$	4.36	5.15	5.08	5.31	5.39	5.61

表4 有/无磁场作用下材料表面自由能色散分量和极性分量

材料类型	表面能参数	表面能/mN·m^-1
材料类型	表面能参数	0min	10min	20min	30min	40min	50min
玻璃钢	$γ s d$	30.33	30.90	30.77	30.97	31.24	31.42
玻璃钢	$γ s p$	10.39	10.35	11.34	11.58	11.65	11.80
玻璃钢+磁场	$γ s d$	30.33	30.93	31.03	31.07	31.28	31.44
玻璃钢+磁场	$γ s p$	10.39	10.74	11.40	11.81	11.91	12.16
PTEF	$γ s d$	22.38	22.68	23.39	23.92	24.04	24.53
PTEF	$γ s p$	1.55	1.66	1.70	1.66	1.79	1.81
PTEF+磁场	$γ s d$	22.38	22.76	23.54	23.79	24.24	24.69
PTEF+磁场	$γ s p$	1.55	1.78	1.73	1.97	1.77	1.93
PVC	$γ s d$	13.85	14.34	14.30	14.40	15.23	15.41
PVC	$γ s p$	13.26	13.19	13.48	13.59	13.28	13.32
PVC+磁场	$γ s d$	13.85	14.38	14.36	14.63	15.23	15.38
PVC+磁场	$γ s p$	13.26	13.28	13.80	13.88	13.66	14.12
镀锌铁	$γ s d$	34.96	35.20	35.46	35.41	35.46	35.79
镀锌铁	$γ s p$	4.07	4.15	4.29	4.84	5.08	5.09
镀锌铁+磁场	$γ s d$	34.96	35.17	36.08	36.37	36.17	36.49
镀锌铁+磁场	$γ s p$	4.07	4.49	4.53	4.68	5.26	5.60
H62铜	$γ s d$	35.55	35.29	34.81	34.91	34.71	34.81
H62铜	$γ s p$	2.47	3.02	3.67	3.92	4.49	4.62
H62铜+磁场	$γ s d$	35.55	35.61	35.09	35.18	35.72	35.58
H62铜+磁场	$γ s p$	2.47	3.02	3.91	4.73	5.15	5.82
316不锈钢	$γ s d$	34.21	34.23	34.45	34.60	34.83	35.08
316不锈钢	$γ s p$	4.36	4.55	4.77	4.87	5.06	5.18
316不锈+磁场	$γ s d$	34.21	34.74	35.46	35.52	35.67	35.80
316不锈+磁场	$γ s p$	4.36	5.15	5.08	5.31	5.39	5.61

图12 不同时刻各材料表面自由能对结垢量的影响规律

图13 不同时刻各材料表面自由能对失钙率的影响规律

图14 不同时间各材料表面粗糙度对结垢量的影响规律

图15 不同时间各材料表面粗糙度对失钙率的影响规律

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磁场与材料协同对碳酸钙晶体动态生长的影响

Synergic influence of magnetic field and material on dynamic growth of calcium carbonate crystals

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