用户名: 密码: 验证码:
遥感图像三维技术研究及古黄河源头水系的新发现
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
本文采用遥感图像三维技术结合野外地质调查的研究方法目的是揭示古黄河存在其它源头水系的问题这一研究课题对于认识黄河的演化过程具有重要意义
    研究内容包括大区域遥感图像三维技术三维动态技术和洪水演进仿真技术青海湖历史水位高度及其与黄河水系的关系阿拉善高原古水系及其与黄河水系的关系
    研究结论是青海湖在最盛时期为外流水系水位高于现今湖面200余米面积是现今的2 倍有余并有东北东南三个泄水口与现今黄河相通青海湖是古黄河的源头水系之一阿拉善高原存在一个庞大的古水系河湖网大体为东南流向汇聚于腾格里沙漠而与黄河水系相通也是黄河的源头水系之一发生于晚更新世的现今黄河对其袭夺作用彻底改变了北方水系的基本格局
As the mother river of the Chinese nation since tens of thousand years the Yellow River has brought up the Chinese nation and witnessed the rise and fall and the growth of the Chinese nation. The source of the modern Yellow River has already had the solid conclusion, however, the JiuQu Yellow River which flows through the north of china has changed at intervals. Studying from the angle of the ancient Yellow River, we can see that its source of water-system is an important topic deserving further research and knowing from a new angle. The origin of the history water level of Qinghai Lake.
    The problem of the drop of Qinghai Lake’s water level has been put forward in the reports of many research organization and some scholars’articles. It has been introduced in some representative essays such as “The Chinese supply of water in 21st century”, “The lagoon integrated survey report of Qinghai Lake”, “The environment of Chinese Lake”and so on. According to above all, some scholars consider that, the Qinghai Lake in the Recent Epoch, the water level has already descended more than 100 meters, and its area was bigger than now by 1\3.
    In the synthetically study processes of the changes of the Chinese northern environment and the ancient Yellow River’s source of water system, my tutor has put forward the further problem of the descent range of Qinghai Lake’s water level in the base of the arguments talked above. His general idea is that since the Pleistocene Epoch of night the range of Qinghai Lake’s water level has dropped much more than 100 meters. The understanding of the Alashan Plateau’s remote sensing image.
    It can been seen from the whole Alashan plateau’s remote sensing image that the characteristic of the landforms of the Alashan Plateau announces the distributed characteristic of the ancient source of water-system in the Alashan Plateau.
    First, the BaDanjilin desert, the Tenggeli desert and the WuLanbuhe desert are connected together physically. But they are separated by the intermittent mountains ----YaBulan Mountain, HaWula Mountain, the Wolf Mountain and
    HeLan Mountain. Second, the desert form has the obvious distributed characteristic of lake and river both ends of the sandy cages which are connected with the lake. In the desert distributing some lagoons and sands which can be known as alternating or communicating with each other. Third, the modern flowing sandy river crossing from northwest to southeast passes through the mountain systems, extending to the east part of Yellow River and the Great Bend of the Yellow River. Fourth, the fact that the flowing sandy river which crosses from northwest to southeast, the southeast part of the Tenggeli desert and the modern Yellow River have merged into an entirety reveals their communication and identity. The Problem of the source of the ancient Yellow River’s water system and the foundation of the choosing subject. On the basis of above comprehensive analysis of the preceding research data and my tutor’s long-term research foundation, and after the researches of remote sensing pictures, it is put forward in this article the question of the Qinghai Lake’s historical water level and the Yellow River’s water system and its relationship. Therefore, this article takes them as its topic. The specific basises are as follows: 1. It is the consensus of the academic circles that the Qinghai Lake’s water level has dropped. There are many different treatises about the range. But through the analysis and explain of the remote sensing pictures, we find that the historical highest water level of the Qinghai Lake is not only higher than now by 3196 meters but also has the possibility to achieve the data 200 meters, higher than the controlling statistic. 2. The exit of the Qinghai Lake’s east-northern part and the HuangShui Valley are connected together, the exit of the southeastern part and the Republican Basin, GuiDe Basin are connected together. If the historical highest water level of the Qinghai Lake has actually achieved the data, higher than now by 200 meters, the northern part will overflow to connect with the HuangShui water system, and the southeastern part will overflow to connect with the modern Yellow River directly. 3. The analysis of the Alashan Plateau remote sensing pictures shows us that an ancient water system should have existed on the Alashan Plateau whose river nets and lake groups are huge and various. 4. The ancient water system of the Alashan Plateau and the modern Yellow River are connected east and southeast. They are one part of the source of water system. An important question about the source of water-system of the ancient Yellow River is made up of the relationship of Qinghai Lake’s historical water
    level and the Yellow River’s water system, and the relationship of ancient water-system of Alashan Plateau and modern Yellow River. The basic thoughts and the research meanings of this text. The basic thoughts lie in the macroscopic remote sensing images and the fidelity of three-dimensional landscapes, to show the audio-visual geological terrain landform. In this way, people can hold the overall situation from the macro view and make the important regions outstanding so as to improve the translating ability of remote sensing images. It study the information and evolution processes of the Yellow River from one side, find out the regulation of the formation and evolution of the Yellow River and probe into the source of water system of the ancient Yellow River. The research of this topic gives a useful hand to know the regulation of the formation and evolution of the Yellow River, and it has the important reference value on the improvement of the northwestern ecosystem environment and the developing strategy of the northwest. The main technological/method and the care research contents The first research about the three-dimensional remote sensing technique offers valid evidence for the announcement of the ancient Yellow River’s source of water system. The main contents of this article are as follows: 1. The research of large regional 3D image manufacture. The whole research process takes the three-dimensional remote sensing technique as its main line. By the method of making traditional three-dimensional pictures, a set of practical methods to develop the large-regional 3D remote sensing images can be put forward to solve the problems. 2. The research and realization of the source-happening flood evolutional imitating technique. On the basis of the discussion of the types of flood inundated, we put forward the concept of source-happening flood, and the dynamic source-happening flood evolution imitating system can be developed. This system can vividly imitate the water level’rising process inside the lake basin in the rising process of the lake’s water level and the overflowing process of the exit of the lake basin and also the direction of the flowing water the river course after the water overflows from the exit of the lake basin. 3. The research of the Qinghai Lake’s historical height of water level. The research domain of the drop of the Qinghai Lake’s water level is the current arousing general interests. Using year as the dimension to study the regulations and the development trends of the change of the water level, the research stance of this text is fixed to the whole history of the formation and
    the development of the Qinghai Lake. In the angle of the river and lake accumulated together in the Quaternary Period and the lake turning to the landform. We can announce its historical height of water level and the revivification of the origin feature. 4. The study of relationship between the Qinghai Lake and the Yellow River’s water system. One of the key techniques adopted in this text is using the real terrain data, adopting the flood evolutionary dynamic imitating technique to reappear the waters state under the ancient water level’s situation and uncover the inside relationship between the Qinghai Lake’s water system and the Yellow River. Adopting this technique realizes the vivid imitation of the spread area after the Lake rises and sees the ancient landscape that the lake flows along the river course to the Yellow River from the macroscopic point of view. 5. The uncovery distributed characteristic of Alashan Plateau ancient water-system. On the basis of three-dimensional Remote Sensing images, we research the situation and the distributed law of BaDan TiLin Desert, YaBulai Mountain, HaWuLa Mountain, Wolf Mountain, TengGeLi Desert, WuLanBuHe Desert, HeLan Mountain, Yellow River and HeTao Plain’s river-lake sediment, from west to east, and what’s more interpret the floating law of plateau sand-river and the distributed characteristic of ancient water-sysytem. 6. Applying the three-dimensional image technique to study the fossil water system of the Alashan plateau. On the foundation of DEM and the remote sensing images we develop the whole terrain landform 3D images of the region and have an audio-visual complete understanding of the natural geography situation and the terrain. Seeing it, we can completely observe and study the BaDanjilin desert, the YaBulai Mountain-HaWula Mountain-wolf Mountain mountain range, the Yellow River, the HeTao plateau about their river-lake accumulation situation and their distribution law, and also explain the flowing law of the plateau sand river, the law of the ancient water system’s flowing direction and reveal the inside relationship between the ancient water system of the Allah plateau and the Yellow River. There is a huge net of ancient water system in Allah plateau. It runs from BaDan JiLin basin to the east and then gather at the HeTao area and continue running the southeast from the southern at last, they assemble in the Tenggeli basin. The ancient water system of Allah plateau, in other words the ancient Yellow River is connected with modern one. It is one of the source systems of the Yellow River. There are at least three main paths connected with modern
引文
[1] 黄河水利委员会青海省志?长江黄河澜沧江源志黄河水利出版社2000 年8月第1 版218
    [2] 焦北辰刘光明中国自然地理图集中国地图出版社第2 版2004 年4 月241
    [3] 张国良等21 世纪中国水供求中国水利水电出版社1999 年6 月第1 版4
    [4] 中国科学院兰州地质研究所等青海湖综合考察报告科学出版社1979 第1 版1-22
    [5] 金相灿等中国湖泊环境第二册海洋出版社1995 年5 月第1 版1-28
    [6] 中国科学院兰州分院等青海湖近代环境的演化和预测科学出版社1994 年8 月第1 版1-9
    [7] 徐青地形三维可视化技术测绘出版社2000 年8 月第1 版1-12
    [8] 李清泉扬必胜等三维空间数据的实时获取建模与模型可视化武汉大学出版社2003 年12 月第1 版102-105
    [9] 王建军李青基于图像的绘制技术火力与指挥控制2003 年10 月第28卷第5 期8
    [10] 李志林朱庆数字高程模型武汉测绘科技大学出版社2000 年3 月第1版1-10 29-59
    [11] 范义文周洪泽资源与环境地理信息系统科学出版社2003年12月第1版88-92
    [12] 郭齐胜谢薇张战场视景实时仿真技术系统仿真学报2001 年11 月第13卷增刊268
    [13] 和平鸽工作室OpenGL 三维图形系统开发与实用技术清华大学出版社2003 年8 月第1 版236-244
    [14] 刘仁义刘南基于GIS的复杂地形洪水淹没区计算方法地理学报2001年1 月第56 卷第1 期1-5
    [15] 袁艳斌袁晓辉等洪水演进三维模拟仿真系统可视化研究山地学报2002年2 月105
    [16] 覃士欢袁艳斌等洪水演进仿真系统河道边界搜索模型及算法分析水电能源科学2001 年9 月35
    [17] 王邵武董光荣中国西部环境演变评估第一卷中国西部环境特征及其演变科学出版社2002 年2 月第1 版87-93
    [18] 王苏民林而达佘元祥中国西部环境演变评估第三卷环境演变对中国西部发展的影响及对策科学出版社2002 年2 月第1 版45-46
    [19] 刘占声洞庭湖区江湖演化及泥沙淤积吉林科学技术出版社1995 年5 月第1 版
    [20] 刘晓艳林珲等虚拟城市建设原理与方法科学出版社2003 年8 月第1版21-55 105-136
    [21] 龚建华林珲虚拟地理环境--在线虚拟现实的地理学透视高等教育出版社2001 年5 月第1 版
    [22] 张永生遥感图象信息系统科学出版社2000 年4 月第1 版128-165
    [23] 石教英虚拟现实基础及实用算法科学出版社2002 年4 月第1 版76-202
    [24] 秦耀辰钱乐群等地球信息科学引论科学出版社2004 年2 月第1 版459-505
    [25] Thomas M.lillesand Ralph W.Kiefer[美] Remote Sensing and Image Interpretation (Fourth Edition) 彭望碌余先川等译遥感与图像解译电子工业出版社2003 年8 月第1 版
    [26] 李德仁关泽群空间信息系统的集成与实现武汉测绘科技大学出版社2000 年3 月第1 版
    [27] 王英杰袁勘省多维动态地学信息可视化科学出版社2003 年10 月第1版187-193
    [28] 党安荣王晓栋等ERDAS IMAGINE 遥感图像处理方法清华大学出版社2003 年5 月
    [29] 任留成空间投影理论及其在遥感技术中的应用科学出版社2003 年6 月第1 版146-152
    [30] 李树揩薛永祺高效三维遥感集成技术系统科学出版社2000 年1 月第1版162-171
    [31] 张永生巩凡超高分辨率遥感卫星应用--成像模型处理算法及应用技术科学出版社2004 年5 月第1 版219-223
    [32] 汤国安张友顺等遥感数字图像处理科学出版社2004 年3 月第1 版127-163
    [33] 钱乐群遥感数字影像处理与地理特征提取科学出版社2004 年7 月第1 版127-163
    [34] 张祖勋张剑清数字摄影测量学武汉大学出版社1997 年1 月第1 版2002 年6 月第3 次印刷34-85
    [35] 唐泽圣三维数据场可视化清华大学出版社1999 年12 月第1 版1-14
    [36] 陈鹰遥感影像的数字摄影测量同济大学出版社2003 年9 月第1 版243-263
    [37] 陈华慧遥感地质学地质出版社1984 年10 月第1 版
    [38] 吴普特等中国西北地区水资源开发战略与利用技术中国水利水电出版社2001 年6 月第1 版
    [39] 华炜大规模场景快速绘制技术浙江大学博士研究生论文2002 年5 月
    [40] 龚建华地学可视化-理论技术及其应用中国科学院地理研究所博士后研究工作告1997 年11 月
    [41] 谢传节虚拟地理信息系统数据模型研究中国科学院地理科学与资源研究所博士学位论文2000 年9 月
    [42] 陆艳青海量地形数据实时绘制的技术研究浙江大学博士论文2003 年7 月
    [43] 刘锦中马辉基于等高线的DEM 生成算法研究和实现现代测绘2004 年6 月第27 卷第3 期34-35
    [44] 李峻边馥苓等DEM 及纹理图像的集成数据库研究测绘科学第25 卷第3 期2000 年9 月24-27
    [45] 王密龚健雅李德仁大型遥感影像数据库的空间无缝数据组织武汉大学学报2001 年10 月No.5 419-423
    [46] 柳超卜淮原虚拟电子沙盘实现技术探析重庆工业高等专科学校学报2002 年3 月第17 卷第1 期39-42
    [47] Marcvan Kreveld. Digital Elevation Modelsand TIN Algorithms: Algorithmic Foundations of Geographic Information Systems pp37-78, Springer Verlag, 1997
    [48] 余鹏刘丽芬利用地形图生产DEM 数据的研究测绘通报1998 年第10期16-18
    [49] 周杨徐青影像融合在三维地形仿真中的应用中国图象图形学报2002年6 月第7 卷( 版) 第6 期592-595
    [50] 常歌徐青利用OpenGL 制作LandsatTM 遥感图像三维影像图解放军测绘学院学报1998 年6 月第15 卷第2 期
    [51] 薛安马蔼乃等基于OpenGL 实现真实感地形表现的研究中国图象图形学报2001 年8 月第6 卷(A 版) 第8 期
    [52] Feiner. StevenK. Developing advanced virtual reality applications. In: Proceeding of SIGGRAPH, 1994: 1-345
    [53] 张立强等三维地形的动态生成及空间分析同济大学学报2003 年6 月第31 卷第6 期738-742
    [54] 戴晨光等利用OpenGL 实现三维地形的快速动态显示测绘通报1998 年第6 期8-12
    [55] 吕恒江南基于OpenGL 和地形图支撑下的地形三维显示计算机工程2004 年4 月第30 卷第7 期174-176
    [56] 刘学王兴奎等基于GIS 的空间过程模拟建模方法研究中国图象图形学报1999 6 第4 卷( 版) 第6 期479
    [57] 袁艳斌袁晓辉等洪水演进三维模拟仿真系统可视化研究山地学报2002年2 月105
    [58] 覃士欢袁艳斌等洪水演进仿真系统河道边界搜索模型及算法分析水电能源科学2001 年9 月35
    [59] 龚建华林珲地学可视化探讨遥感学报2002 1999 年8 月第3 卷第3 期238-239
    [60] 董文锋袁艳斌流域三维地形仿真及洪水演进动态模拟水电能源科学2001 年9 月第19 卷第3 期37-39

© 2004-2018 中国地质图书馆版权所有 京ICP备05064691号 京公网安备11010802017129号

地址:北京市海淀区学院路29号 邮编:100083

电话:办公室:(+86 10)66554848;文献借阅、咨询服务、科技查新:66554700