海洋沉积物释光测年现状与展望

姜涛; 胡亦潘; 周从艳; 陈康林; 梁晨; 宋霖

doi:10.19509/j.cnki.dzkq.2022.0192

海洋沉积物释光测年现状与展望

doi: 10.19509/j.cnki.dzkq.2022.0192

中国地质大学(武汉)海洋地质资源湖北省重点实验室，武汉 430074

基金项目:

国家自然科学基金项目 41976073

详细信息

作者简介:
姜涛(1979—)，男，教授，博士生导师，主要从事海洋地质与资源和海洋沉积物释光测年的教学和科研工作。E-mail: taojiang@cug.edu.cn

中图分类号: P714⁺.6
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- 文章访问数: 867
- PDF下载量: 141
- 被引次数: 0
出版历程
- 收稿日期: 2022-06-27
- 网络出版日期: 2022-11-10

A review of luminescence dating on marine sediments

Hubei Key Laboratory of Marine Geological Resources, China University of Geosciences(Wuhan), Wuhan 430074, China

摘要

摘要:
自释光现象被用于沉积物测年的半个多世纪以来，释光测年技术已被广泛应用于各类海洋沉积物的年代测定，为古环境古气候和构造活动及地形地貌演变等研究提供了高精度年代学约束的同时，释光测年技术的精度和准确性也取得了长足发展。在系统回顾和总结海洋沉积物释光测年的发展历史基础上，详细讨论了释光测年技术在海洋沉积物测年中的研究现状，总结了全球海洋沉积物释光测年研究的特点。海洋沉积物的沉积埋藏过程相对复杂，部分晒退现象普遍存在，饱和含水的沉积环境导致环境剂量精确测定存在一定困难。因此在海洋沉积物年代测定和计算过程中需要根据实际情况对样品的释光性质进行分析，选择合适的等效剂量测试方法，并使用合适的环境剂量校正方法进行年代计算。释光测年方法在晚更新世以来海洋沉积物测年中表现出了独特的优势，释光测年目标矿物在海洋沉积物中普遍存在，并且随着近年来研究的不断深入，测年精度也得到了明显的提高，可以为晚更新世以来的海洋沉积物研究提供高精度的绝对年代地层格架。
- 海洋沉积物 /
- 释光测年 /
- 第四纪 /
- 现状与展望
Abstract:
During the past 50 years, luminescence dating has been widely applied to dating various marine sediments, which provides important chronological constraints for researches on climate, structure, and geomorphic activities. This paper summarizes articles related to luminescence dating on marine sediments and discusses the details of the development of luminescence dating methodology as well as its applications for marine sediments. The characteristics of luminescence dating on marine sediments in different regions around the world and their contributions to dating the marine sediments by luminescence dating have been summarized. The deposition and burial processes of marine sediments are relatively complex, and insufficient bleaching phenomena are ubiquitous. The saturated water-bearing sedimentary environment makes it difficult to accurately determine the annual dose. Therefore, in the process of dating and calculating the luminescence ages of marine sediments, it is necessary to analyze the luminescence properties of specific samples, select the appropriate equivalent dose test method, and adopt the appropriate annual dose correction method for age calculation. The luminescence dating method has shown unique advantages in various studies of marine sediments since the late Pleistocene. The targeted minerals for luminescence dating commonly exist in marine sediments.With great developments in recent years, the age accuracy has also been significantly improved, which can provide a high-precision absolute chronostratigraphic framework for various studies of marine sediments since the late Pleistocene.
- marine sediments /
- luminescence dating /
- Quaternary /
- research status and prospect

HTML全文

图 1 释光测年原理示意图

Figure 1. Schematic of luminescence dating

下载: 全尺寸图片幻灯片

图 2 近50年来海洋沉积物释光测年相关论文数量

Figure 2. Numbers of papers about luminescence dating on marine sediments over the past 50 years

下载: 全尺寸图片幻灯片

图 3 不同类型海洋沉积物释光测年研究实例

Figure 3. Case studies of luminescence dating on various marine sediments

下载: 全尺寸图片幻灯片

图 4 全球海洋沉积物释光测年研究实例分布图

Figure 4. Distribution map of case studies on luminescence dating on marine sediment in the world

下载: 全尺寸图片幻灯片

图 5 海洋沉积物环境剂量率测试方法统计图

Figure 5. Statistical diagram of test methods of environmental dose rate of marine sediments

下载: 全尺寸图片幻灯片

表 1 海洋沉积物释光测年研究实例

Table 1. Case studies on luminescence dating on marine sediments

序号	地理位置	沉积物类型	等效剂量测试方法	环境剂量测试方法	资料来源
亚洲
1	渤海湾西岸	海岸沙丘	OSL/IRSL	厚源α计数器、火焰光度计	文献[50]
2	渤海湾西岸	浅海沉积物	OSL/IRSL	电感耦合等离子质谱法	文献[51]
3	渤海湾南岸	三角洲沉积物	OSL		文献[53]
4	渤海湾南岸	三角洲沉积物	OSL	中子活化分析	文献[54]
5	渤海湾西岸	海岸沙丘	OSL	电感耦合等离子质谱法	文献[55]
6	渤海湾北岸	海岸沙丘	OSL/IRSL	高分辨率伽马能谱	文献[39]
7	渤海湾辽河三角洲	三角洲沉积物	OSL		文献[56]
8	南黄海西岸	浅海沉积物	OSL		文献[57]
9	南黄海沿岸	潮坪沉积物	OSL	中子活化分析	文献[58]
10	江苏沿海平原	海岸沙丘	OSL/IRSL	中子活化分析	文献[37]
11	东海外陆架	浅海沉积物	OSL		文献[59]
12	东海内陆架	三角洲沉积物	OSL	中子活化分析	文献[60]
13	长江入海口	三角洲沉积物	OSL	中子活化分析	文献[61]
14	长江三角洲	潮坪沉积物	IRSL	中子活化分析	文献[62]
15	长江三角洲	三角洲沉积物	OSL	中子活化分析	文献[63]
16	台湾西南岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[64]
17	香港大澳湾	浅海沉积物	OSL	中子活化分析	文献[65]
18	海南岛西部海域	浅海沉积物	OSL	电感耦合等离子质谱法	文献[66]
19	海南岛东北岸、东南岸	海岸沙丘	OSL	中子活化分析	文献[67]
20	海南岛西南部海域	浅海沉积物	OSL	中子活化分析	文献[68]
21	海南岛东北岸	海岸沙丘	OSL	中子活化分析	文献[69]
22	韩国东南海岸	海蚀阶地	OSL	高分辨率伽马能谱法	文献[70]
23	韩国西部海岸	潮坪沉积物	IRSL	高纯锗伽马能谱法	文献[71]
24	韩国东南海岸	海蚀阶地	OSL	高分辨率伽马能谱法	文献[72]
25	韩国西南海岸	浅海沉积物	OSL	高分辨率伽马能谱法	文献[73]
26	韩国东南海岸	三角洲沉积物	OSL	高分辨率伽马能谱法	文献[74]
27	韩国西南济州海峡	浅海沉积物	OSL		文献[75]
28	韩国西南海域	浅海沉积物	OSL	高分辨率伽马能谱法	文献[76]
29	韩国东南海岸	三角洲沉积物	OSL	高分辨率伽马能谱法	文献[77]
30	冲绳海槽	深海沉积物	IRSL	高分辨率伽马能谱法	文献[78]
31	日本南海海槽	深海沉积物	TL		文献[79]
32	日本中部海岸	海蚀阶地	OSL/TL	中子活化分析	文献[20]
33	日本中部海岸	海岸沙丘	OSL	电感耦合等离子质谱法	文献[80]
34	日本西部海岸	海岸沙丘	OSL/IRSL	电感耦合等离子质谱法	文献[45]
35	日本东部海岸	海岸沙丘	OSL	α计数器/β计数器	文献[81]
36	日本西北部海岸	海岸沙丘	OSL/IRSL	高分辨率伽马光谱法	文献[47]
37	日本东北部海岸	潮坪沉积物	IRSL	电感耦合等离子质谱法	文献[82]
38	日本海北部	浅海沉积物	OSL/IRSL	中子活化分析	文献[49]
39	鄂霍茨克海中部	深海沉积物	OSL	高分辨率伽马光谱法	文献[83]
40	鄂霍次克海西南部	深海沉积物	OSL	高分辨率伽马光谱法	文献[84]
41	越南东南部海岸	海岸沙丘	TL	厚源α计数器、原子吸收光谱法	文献[85]
42	越南湄公河三角洲	三角洲沉积物	OSL	电感耦合等离子质谱法	文献[86]
43	泰国弗拉通岛	海啸沉积物	OSL	高分辨率伽马能谱法	文献[17]
44	马来西亚西部海岸	海岸沙丘	TL	厚源α计数器、原子发射光谱法	文献[87]
45	安达曼群岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[88]
46	斯里兰卡东南海岸	海岸沙丘	TL	厚源α计数器、NaI伽马能谱法	文献[89]
47	印度东南海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[90]
48	印度东部海岸	海啸沉积物	OSL	厚源α计数器、伽马能谱法	文献[16]
49	印度东部海岸	海岸沙丘	OSL/IRSL	NaI伽马能谱法	文献[42]
50	印度西北部海岸	海岸沙丘	OSL	X射线荧光法	文献[91]
51	伊朗东南海岸	海蚀阶地	OSL	电感耦合等离子质谱法(ICP-MS)	文献[92]
52	阿曼东部海岸	海岸沙丘	OSL/IRSL	BEGe、NaI伽马能谱法	文献[43]
53	迪拜西部海岸	潮坪沉积物	OSL	高分辨率伽马能谱法/电感耦合等离子质谱法(ICP-MS)	文献[93]
54	地中海东部海岸	海岸沙丘	TL/IRSL	电感耦合等离子质谱、光谱法(ICP-MS、OES)	文献[34]
55	以色列阿什凯隆西部海域	浅海沉积物	TL/IRSL	电感耦合等离子质谱、光谱法(ICP-MS、OES)	文献[27]
56	以色列西部海岸	浅海沉积物	OSL		文献[94]
57	黑海南部海岸	海蚀阶地	OSL	电感耦合等离子质谱、光谱法(ICP-MS、OES)	文献[95]
58	以色列西部海岸	海岸沙丘	OSL/IRSL	伽马能谱	文献[35]
59	塞浦路斯东南海岸	海岸沙丘	IRSL	电感耦合等离子质谱法(ICP-MS)	文献[96]
60	土耳其北部海岸	海蚀阶地	OSL		文献[97]
大洋洲
61	澳大利亚西南海岸	海岸沙丘	TL	厚源α计数器、原子吸收光谱法	文献[98]
62	澳大利亚西南海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[99]
63	澳大利亚南部诺曼威尔海岸	海岸沙丘	TL		文献[100]
64	澳大利亚南部海域	深海沉积物	OSL	高分辨率伽马能谱法	文献[101]
65	澳大利亚南杨哈斯本半岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[102]
66	澳大利亚南部圭琴湾	海岸沙丘	OSL		文献[103]
67	澳大利亚南部圭琴湾/里沃利湾	海岸沙丘	OSL	电感耦合等离子质谱、光谱法	文献[104]
68	澳大利亚南圭琴湾	海岸沙丘	OSL	高分辨率伽马能谱法	文献[105]
69	澳大利亚东南海岸	海岸沙丘	OSL	中子活化分析、原子吸收光谱法	文献[106]
70	澳大利亚塔斯马尼亚州东南海岸	海岸沙丘	OSL	电感耦合等离子质谱、光谱法	文献[107]
71	澳大利亚东南利普特拉普海岸	海蚀阶地	OSL	中子活化分析、伽马能谱	文献[108]
72	澳大利亚东南吉普斯兰湖海岸	海岸沙丘	TL	厚源α计数器、原子吸收光谱法	文献[109]
73	澳大利亚新南威尔士州海岸	海岸沙丘	TL		文献[110]
74	澳大利亚维多利亚州九十英里海滩	海岸沙丘	OSL	电感耦合等离子质谱法	文献[111]
75	澳大利亚东南双层湾	海岸沙丘	OSL	电感耦合等离子质谱、光谱法	文献[112]
76	澳大利亚新南威尔士州海岸	海岸沙丘	TL	厚源α计数器、X射线荧光法	文献[113]
77	澳大利亚新南威尔士州海岸	海啸沉积物	TL		文献[14]
78	澳大利亚东南本杰洛海滩	海岸沙丘	OSL	电感耦合等离子质谱法	文献[114]
79	澳大利亚东南海岸	海啸沉积物	TL	厚源α计数器、原子发射光谱法	文献[13]
80	澳大利亚新南威尔士州海岸	海啸沉积物	TL	厚源α计数器、原子发射光谱法	文献[15]
81	澳大利亚新南威尔士州海岸	海啸沉积物	TL	厚源α计数器、原子发射光谱法	文献[115]
82	澳大利亚东南杰维斯湾	海岸沙丘	TL	厚源α计数器、X射线荧光法	文献[116]
83	澳大利亚东南肖尔黑文海岸	海岸沙丘	OSL	电感耦合等离子质谱、光谱法	文献[117]
84	澳大利亚新南威尔士州海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[118]
85	澳大利亚新南威尔士州海岸	海岸沙丘	TL	厚源α计数器、原子发射光谱法	文献[119]
86	澳大利亚东部伊鲁卡-伍迪湾	海岸沙丘	OSL		文献[120]
87	澳大利亚昆士兰州莫尔顿岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[121]
88	澳大利亚东部吉宝湾	海岸沙丘	OSL	高分辨率伽马能谱法	文献[122]
89	澳大利亚昆士兰州东南部海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[123]
90	澳大利亚东南弗雷泽岛	深海沉积物	OSL		文献[124]
91	澳大利亚东部菲茨罗伊河入海口	三角洲沉积物	OSL	高分辨率伽马能谱法	文献[125]
92	澳大利亚东部吉宝湾	海岸沙丘	OSL	高分辨率伽马能谱法	文献[126]
93	澳大利亚东北海岸	海岸沙丘	OSL	电感耦合等离子质谱、光谱法	文献[127]
94	澳大利亚东北海岸	海岸沙丘	OSL	电感耦合等离子质谱法	文献[128]
95	澳大利亚卡彭塔里亚湾	海岸沙丘	TL	厚源α计数器、原子发射光谱法	文献[129]
96	澳大利亚卡彭塔里亚湾	三角洲沉积物	TL	伽马能谱法、X射线荧光法	文献[130]
97	澳大利亚卡彭塔里亚湾	浅海沉积物	OSL/TL	厚源α计数器、原子吸收光谱法	文献[25]
98	澳大利亚卡彭塔里亚湾	海岸沙丘	TL	厚源α计数器、X射线荧光法	文献[131]
99	澳大利亚北部海岸	海岸沙丘	TL	厚源α计数器、X射线荧光法	文献[132]
100	澳大利亚东部莫顿湾	海岸沙丘	OSL/TL	高分辨率伽马能谱法	文献[31]
101	澳大利亚北部海岸	海岸沙丘	TL	中子活化分析、原子吸收光谱法	文献[133]
102	澳大利亚北部海岸	海岸沙丘	TL	中子活化分析、原子吸收光谱法	文献[134]
103	斐济西南海岸	海岸沙丘	OSL	高分辨率伽马能谱法、X射线荧光法	文献[135]
104	新西兰沿岸	海岸沙丘	OSL/IRSL	高分辨率伽马能谱法	文献[40]
105	新西兰大巴里尔岛	海啸沉积物	OSL	中子活化分析、电感耦合等离子光谱法	文献[136]
106	新西兰中部海岸	海岸沙丘	IRSL	厚源计数法、原子吸收光谱法	文献[137]
107	新西兰西部骑士岬	海蚀阶地	OSL	伽马能谱法	文献[138]
108	新西兰中部海岸	海岸沙丘	IRSL	伽马能谱法	文献[139]
109	新西兰东南海岸	海蚀阶地	OSL	中子活化分析	文献[140]
110	新西兰东南海岸	海蚀阶地	TL	中子活化分析、电感耦合等离子光谱法	文献[141]
非洲
111	埃及北部海岸	海岸沙丘	OSL	中子活化分析	文献[142]
112	突尼斯东北海岸	海蚀阶地	OSL/ IRSL	伽马能谱	文献[46]
113	突尼斯东部海岸	海岸沙丘	IRSL	中子活化分析	文献[52]
114	突尼斯东部海岸	海岸沙丘	OSL	NaI伽马能谱法	文献[19]
115	摩洛哥卡萨布兰卡海岸	海蚀阶地	OSL	野外原位伽马能谱	文献[143]
116	加纳沃尔特河海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[144]
117	南非南部海岸	海岸沙丘	OSL	电感耦合等离子质谱、光谱法	文献[145]
118	南非南部海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[146]
119	南非南部海岸	浅海沉积物	OSL	厚源α/β计数器、野外原位伽马能谱	文献[147]
120	南非南部海岸	海岸沙丘	OSL	厚源β计数器、野外原位伽马能谱	文献[148]
121	南非东南海岸	海岸沙丘	TL/IRSL	厚源α计数器、X射线荧光法	文献[32]
122	南非东南海岸	海岸沙丘	OSL	电感耦合等离子质谱、光谱法	文献[149]
123	南非东部海岸	海岸沙丘	IRSL	电感耦合等离子质谱、光谱法	文献[150]
124	莫桑比克东部海岸	海岸沙丘	OSL	厚源α/β计数器	文献[151]
欧洲
125	葡萄牙西部海岸	海岸沙丘	OSL	中子活化分析	文献[152]
126	葡萄牙西部海岸	海岸沙丘	IRSL	厚源α/β计数器	文献[153]
127	西班牙弗门特拉岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[154]
128	西班牙马略卡岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[155]
129	法国西南海岸	海岸沙丘	IRSL	厚源α/β计数器	文献[156]
130	法国西北海岸	海岸沙丘	TL	伽马能谱/厚源计数	文献[157]
131	法国西北海岸	海岸沙丘	OSL	中子活化分析、野外原位伽马能谱	文献[158]
132	法国桑加特海岸	海岸沙丘	TL	伽马能谱法/中子活化分析	文献[159]
133	英国锡利群岛	潮坪沉积物	OSL	厚源α/β计数器	文献[160]
134	英国南部海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[22]
135	威尔士西北海岸	海岸沙丘	OSL	厚源α/β计数器	文献[23]
136	苏格兰北部海岸	海岸沙丘	OSL	厚源计数器、伽马能谱法	文献[161]
137	设得兰群岛西海岸	海岸沙丘	OSL		文献[162]
138	挪威东南海岸	海岸沙丘	OSL/IRSL	厚源α计数器、电感耦合等离子质谱、光谱法	文献[36]
139	丹麦斯卡根半岛	海岸沙丘	OSL	伽马能谱法	文献[163]
140	丹麦斯卡根半岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[164]
141	丹麦斯卡根半岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[165]
142	丹麦海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[166]
143	丹麦安霍尔特岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[167]
144	丹麦西兰岛海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[168]
145	丹麦南部海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[169]
146	丹麦西部海岸	潮坪沉积物	OSL	高分辨率伽马能谱法	文献[170]
147	丹麦西部海岸	海岸沙丘	OSL		文献[171]
148	丹麦西部海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[172]
149	丹麦西部瓦登海	海岸沙丘	OSL	高分辨率伽马能谱法	文献[173]
150	丹麦西部瓦登海	潮坪沉积物	OSL	高分辨率伽马能谱法	文献[174]
151	丹麦西部瓦登海	潮坪沉积物	OSL	高分辨率伽马能谱法	文献[175]
152	丹麦西南海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[176]
153	德国北部海域	浅海沉积物	OSL	HPGe伽马能谱法	文献[177]
154	德国北海海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[178]
155	德国北海海岸	潮坪沉积物	OSL	中子活化分析	文献[179]
156	德国北海海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[180]
157	德国北海海岸	海岸沙丘	IRSL	高分辨率伽马能谱法	文献[181]
158	德国亚斯蒙德半岛	海岸沙丘	OSL/IRSL	高分辨率伽马能谱法	文献[38]
159	荷兰西北海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[182]
160	荷兰北部泰瑟尔岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[183]
161	荷兰北部泰瑟尔岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[184]
162	比利时西海岸	潮坪沉积物	OSL	中子活化分析/高分辨率伽马能谱法	文献[185]
163	比利时西海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[186]
164	波罗的海西南海域	海岸沙丘	OSL	高分辨率伽马能谱法	文献[187]
165	波罗的海西南海域	浅海沉积物	OSL		文献[188]
166	波罗的海西南海域	浅海沉积物	OSL	HPGe伽马能谱法	文献[189]
167	波罗的海西南海域	浅海沉积物	OSL	高分辨率伽马能谱法	文献[190]
168	波罗的海南部海域	浅海沉积物	OSL	HPGe伽马能谱法	文献[191]
169	立陶宛西部海岸	海岸沙丘	OSL	伽马能谱法	文献[192]
170	立陶宛西部海域	海岸沙丘	OSL/IRSL	伽马能谱法	文献[41]
171	拉脱维亚西部海岸	海岸沙丘	OSL/IRSL	中子活化分析	文献[44]
172	爱沙尼亚东北海岸	海岸沙丘	IRSL	伽马能谱法	文献[193]
173	意大利西北海岸	海岸沙丘	OSL	中子活化分析	文献[194]
174	意大利撒丁岛西北海岸	海岸沙丘	OSL	高分辨率伽马能谱法	文献[195]
175	意大利西部海岸	海岸沙丘	IRSL	中子活化分析、原子吸收光谱法	文献[196]
176	意大利南部海岸	海蚀阶地	TL		文献[197]
177	意大利西西里岛西北海岸	海岸沙丘	TL	厚源α计数器、原子吸收光谱法	文献[198]
178	意大利南部海岸	海蚀阶地	TL	中子活化分析、X射线荧光法	文献[199]
179	意大利南部海岸	海蚀阶地	OSL	电感耦合等离子质谱法	文献[200]
180	意大利南部海岸	海蚀阶地	IRSL	中子活化分析、厚源α计数器	文献[201]
181	意大利东南海岸	海蚀阶地	TL/IRSL	伽马能谱法	文献[24]
182	希腊南部海域	深海沉积物	OSL/TL	厚源α计数器、火焰光度计	文献[33]
183	希腊南部海域	深海沉积物	IRSL	厚源α计数器、火焰光度计	文献[202]
184	罗马尼亚多瑙河海岸	海岸沙丘	OSL	野外原位伽马能谱法	文献[203]
185	亚速海北部海岸	海岸沙丘	OSL	中子活化分析	文献[204]
美洲
186	加拿大西北海岸	海岸沙丘	OSL	野外原位伽马能谱法	文献[205]
187	加拿大卡尔弗特岛	海岸沙丘	OSL	中子活化分析	文献[206]
188	加拿大卡尔弗特岛	海岸沙丘	OSL		文献[207]
189	加拿大西部海岸	海啸沉积物	IRSL	厚源α计数器	文献[208]
190	哈德逊湾南岸	海岸沙丘	TL	厚源α计数器、原子吸收光谱法	文献[209]
191	马格达伦岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[210]
192	阿拉斯加南部海岸	海岸沙丘	IRSL	厚源α计数器、火焰光度法	文献[211]
193	俄勒冈州西北海岸	海岸沙丘	OSL	β计数器	文献[212]
194	俄勒冈州西部海岸	海岸沙丘	TL		文献[213]
195	俄勒冈州西南海岸	海岸沙丘	OSL	中子活化分析、原子吸收光谱法	文献[214]
196	加利佛尼亚西北海岸	海岸沙丘	TL	厚源α计数器	文献[215]
197	加利福尼亚西部海域	深海沉积物	OSL	高分辨率伽马能谱法	文献[216]
198	墨西哥湾格兰德岛	三角洲沉积物	OSL	中子活化分析	文献[217]
199	墨西哥湾北部海岸	海岸沙丘	OSL		文献[218]
200	墨西哥湾东北海岸	海岸沙丘	OSL/TL	中子活化分析	文献[29]
201	墨西哥湾东北海岸	海啸沉积物	TL		文献[219]
202	墨西哥湾圣文森特	海岸沙丘	OSL	中子活化分析	文献[220]
203	墨西哥湾圣文森特	海岸沙丘	OSL	中子活化分析	文献[221]
204	佐治亚洲海岸	海岸沙丘	OSL	NaI伽马能谱法	文献[222]
205	北卡罗来纳州海岸	海岸沙丘	OSL		文献[223]
206	北卡罗来纳州海岸	海岸沙丘	OSL		文献[224]
207	佛吉尼亚洲海岸	海岸沙丘	OSL	BEGe伽马能谱法	文献[225]
208	马萨诸塞州海岸	海岸沙丘	OSL	中子活化分析、原子吸收光谱法	文献[226]
209	缅因州海岸	海岸沙丘	OSL		文献[227]
210	厄瓜多尔西部海岸	海蚀阶地	IRSL	中子活化分析、厚源α计数器	文献[228]
211	厄瓜多尔西部海岸	海蚀阶地	IRSL		文献[229]
212	巴西东部海岸	海蚀阶地	OSL/TL	中子活化分析	文献[26]
213	巴西东部海岸	海岸沙丘	OSL/TL	NaI伽马能谱法	文献[28]
214	巴西东南海岸	海岸沙丘	OSL	HPGe伽马能谱法	文献[230]
215	巴西东南海岸	海岸沙丘	OSL		文献[231]
216	巴西南部海岸	海岸沙丘	OSL	HPGe伽马能谱法	文献[232]
217	巴西南部海岸	海岸沙丘	OSL	HPGe伽马能谱法	文献[233]
218	巴西南部海岸	海岸沙丘	OSL	HPGe伽马能谱法	文献[234]
南北极
219	俄罗斯北部海岸	海岸沙丘	OSL	HPGe伽马能谱法	文献[235]
220	泰米尔半岛	海岸沙丘	OSL	高分辨率伽马能谱法	文献[236]
221	南极洲乔治王岛	岸沙丘	OSL	伽马能谱法	文献[237]
222	南极洲玛格丽特湾北部海岸	海岸沙丘	OSL	伽马能谱法	文献[238]
223	南极洲玛格丽特湾东部海岸	海岸沙丘	OSL	伽马能谱法	文献[239]
224	南极半岛拉勒曼德峡湾	浅海沉积物	OSL	厚源α计数器、原子吸收光谱法	文献[240]
深海大洋
225	北冰洋	深海沉积物	OSL/TL	厚源α计数器	文献[30]
226	北冰洋	深海沉积物	OSL	厚源α计数器、原子吸收光谱法	文献[241]
227	北冰洋	深海沉积物	OSL	厚源α计数器、原子吸收光谱法	文献[242]
228	北冰洋	深海沉积物	OSL	高分辨率伽马能谱法	文献[243]
229	北冰洋	深海沉积物	OSL/IRSL	高分辨率伽马能谱法	文献[48]
230	太平洋	深海沉积物	TL	厚源α计数器、X射线荧光法	文献[7]
231	大西洋	深海沉积物	OSL	电感耦合等离子质谱法	文献[244]
232	大西洋	深海沉积物	OSL	电感耦合等离子质谱法	文献[245]
233	孟加拉湾	深海沉积物	IRSL	—	文献[246]
234	阿拉伯海	深海沉积物	TL	厚源α光谱器、火焰光度计法	文献[247]
235	东印度洋	深海沉积物	OSL	高分辨率伽马能谱法	文献[248]
236	南大洋	深海沉积物	TL	厚源α计数器	文献[18]

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参考文献(249)

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