青藏高原东北缘晚更新世以来环境变化研究进展
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柯思茵, 张冬丽, 王伟涛, 王孟豪, 段磊, 杨敬钧, 孙鑫, 郑文俊
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Progress of Environmental Change in the Northeastern Tibetan Plateau Since Late Pleistocene
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Siyin KE, Dongli ZHANG, Weitao WANG, Menghao WANG, Lei DUAN, Jingjun YANG, Xin SUN, Wenjun ZHENG
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图4 青藏高原东北缘气候记录与其他区域的对比 (a)深海底栖有孔虫氧同位素[3];(b)古里雅冰芯氧同位素[7];(c)湟水阶地黄土粒径大于63 μm的含量变化[14];(d)合作盆地黄土粒径大于40 μm的含量变化[10];(e)塔吉克斯坦黄土频率磁化率[72];(f)洛川黄土粒径大于40 μm的含量变化[73];(g)三宝洞石笋氧同位素[74];(h)7月65°N太阳辐射[75]
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Fig. 4 Comparison between climate records in the NE Tibetan Plateau and other regions (a) Oxygen isotope of deep sea foraminiferan[3]; (b) Oxygen isotope of Guliya ice core[7]; (c) Content of loess particle size larger than 63 μm in Huangshui terrace[14]; (d) Content of loess particle size larger than 40 μm in Hezuo Basin[10]; (e) Frequency magnetic susceptibility of Tajikistan loess[72]; (f) Content of loess particle size larger than 40 μm in Luochuan[73]; (g) Oxygen isotope of stalagmite of Sanbao Cave[74]; (h) 65°N solar radiation in July[75]
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