2100公里南北向深层地震反射剖面反映的中印度洋板内缩短

自中印度洋被确认为是大洋岩石圈活动压缩变形的场所以来，人们已经竭尽全力来确定该地区的缩短量．其目的是了解在很高压应力下的板内变形会对周围板块的运动学起什么作用以及大洋岩石圈的机械反映．使用了下面4种不同的方法来定量分析变形速率：     

浅谈设计招投标中对注册人员的确认要求

根据国家和地方法规的有关规定,针对设计招投标活动的实际情况,分析了在设计注册人员的确认方面存在的各类问题,提出了完善招投标文件的具体建议。     

GIS软件在油气长输管道项目矿（产）权确认中的应用

通过在西气东输三线西段（二标段）管道工程项目运用,很好的解决了对矿（产）区、集体用地的矿（产）权确认,为管道经过矿（产）权区确定合理的补偿金额提供科学谈判依据;有效减少了补偿损失;为今后在长输管道穿越矿（产）区、集体用地的补偿提供了测算手段和方法,形成的补偿协议对管道运营单位确定管道权益和维护使用也具有现实意义。     

综合大洋钻探计划

正综合大洋钻探计划(Integrated Ocean Drilling Program,IODP)是一项旨在通过研究海底沉积物和岩石来探索地球历史和结构的宏大国际研究计划。其前身国际大洋钻探计划(Ocean Drilling Program,O DP)和深海钻探计划(Deep Sea Drilling Project,DSDP),是20世纪地球科学领域规模     

地震速报区域的自动确认——以内蒙古测震台网为例

针对当前省级区域测震台网在判别边界地震是否需要速报的问题,基于内蒙古自治区行政区域的边界数据,利用几何学中包络线原理,在Matlab中将内蒙古地震速报范围以包络线的形式呈现,解译Msdp地震分析软件的数据接口,实现内蒙古地震速报区域在Msdp软件中的自动确认;对比分析地震速报区域自动确认功能的结果与现阶段手动量取方式判别地震事件是否需要速报的结果,表明地震速报区域的自动确认可提高速报业务软件系统的自动化程度,简化地震速报工作的操作流程,减少速报用时,提高速报工作的准确度。     

冻土中微裂纹尺寸的识别与确认

在对冻土微观结构试验观测的基础上,提出了对冻土中微裂纹尺寸进行识别和确认的方法,给出了3种典型土质在不同温度下的微裂纹尺寸参考值,为应用冻土强度破坏准则进行定量计算与分析提供依据。将冻土微裂纹损伤区作为冻土体的缺陷处理,并按“当量化裂纹”原则,把冻土微裂纹损伤区简化为“当量裂纹”,如此给出了理论估算微裂纹尺寸的新途径。把理论计算与试验观测结果进行比较,二者符合较好。     

Performance of a Reconfigured Atmospheric General Circulation Model at Low Resolution

Paleoclimate simulations usually require model runs over a very long time.The fast integration version of a state-of-the-art general circulation model (GCM),which shares the same physical and dynamical processes but with reduced horizontal resolution and increased time step,is usually developed.In this study,we configure a fast version of an atmospheric GCM (AGCM),the Grid Atmospheric Model of IAP/LASG (Institute of Atmospheric Physics/State Key Laboratory of Numerical Modeling for Atmospheric Sciences and Geophysical Fluid Dynamics),at low resolution (GAMIL-L,hereafter),and compare the simulation results with the NCEP/NCAR reanalysis and other data to examine its performance.GAMIL-L,which is derived from the original GAMIL,is a finite difference AGCM with 72×40 grids in longitude and latitude and 26 vertical levels.To validate the simulated climatology and variability,two runs were achieved.One was a 60-year control run with fixed climatological monthly sea surface temperature (SST) forcing,and the other was a 50-yr (1950-2000) integration with observational time-varying monthly SST forcing.Comparisons between these two cases and the reanalysis,including intra-seasonal and inter-annual variability are also presented.In addition,the differences between GAMIL-L and the original version of GAMIL are also investigated. The results show that GAMIL-L can capture most of the large-scale dynamical features of the atmosphere, especially in the tropics and mid latitudes,although a few deficiencies exist,such as the underestimated Hadley cell and thereby the weak strength of the Asia summer monsoon.However,the simulated mean states over high latitudes,especially over the polar regions,are not acceptable.Apart from dynamics,the thermodynamic features mainly depend upon the physical parameterization schemes.Since the physical package of GAMIL-L is exactly the same as the original high-resolution version of GAMIL,in which the NCAR Community Atmosphere Model (CAM2) physical package was used,there are only small differences between them in the precipitation and temperature fields.Because our goal is to develop a fast-running AGCM and employ it in the coupled climate system model of IAP/LASG for paleoclimate studies such as ENSO and Australia-Asia monsoon,particular attention has been paid to the model performances in the tropics.More model validations,such as those ran for the Southern Oscillation and South Asia monsoon, indicate that GAMIL-L is reasonably competent and valuable in this regard.     

煤田地质勘查组织需“确认的过程”辩识

对目前在煤田地勘单位贯彻ISO 9001:2000标准7.5.2条款中对需确认的过程的不同观点进行了分析,从“过程确认”的概念入手,并结合煤田地质勘查组织生产和服务提供过程及其特点,提出了煤田地质勘查单位需确认的过程的识别和控制方法。     

被水淹没的河滩地再次显露后权属如何确认

[案情介绍]双方当事人W市S区C村村民李某与同村村民王某对位于本村内的一处河滩地使用权归属发生争议。争议地位于G村村南H河沿岸,面积5亩,原为滩涂地,多年来一直由李某耕种,村委会也对其使用权予以承认。     

Validating the Runoff from the PRECIS Model Using a Large-Scale Routing Model

The streamflow over the Yellow River basin is simulated using the PRECIS （Providing REgional Climates for Impacts Studies） regional climate model driven by 15-year （1979-1993） ECMWF reanalysis data as the initial and lateral boundary conditions and an off-line large-scale routing model （LRM）. The LRM uses physical catchment and river channel information and allows streamflow to be predicted for large continental rivers with a 1°×1° spatial resolution. The results show that the PRECIS model can reproduce the general southeast to northwest gradient distribution of the precipitation over the Yellow River basin, The PRECIS- LRM model combination has the capability to simulate the seasonal and annual streamflow over the Yellow River basin. The simulated streamflow is generally coincident with the naturalized streamflow both in timing and in magnitude.