大窑湾海域水化要素分布及相关关系的探讨

本文依据大窑湾的环境调查资料为基础，系统地阐述了水体中化学要素ｐＨ、盐度、透明度、ＤＯ、ＣＯＤ、ＴＯＣ、浊度、悬浮物、ＮＨ４－Ｎ、ＮＯ２－Ｎ、ＮＯ３－Ｎ、ＰＯ４－Ｐ、ＳｉＯ３－Ｓｉ、Ｃｕ、Ｐｂ、Ｚｎ、Ｃｄ、Ａｓ、Ｈｇ、Ｃｒ、硫化物、六六六、石油等分布规律。诸要素主要是在潮流水动力支配下，形成扩散带。各要素中仅有无机氮和ＰＯ４－Ｐ两项含量超标，其余要素含量范围都是处于海水正常浓度水平，属于一类海水水质。文章并对各要素进行相关关系分析。     

STWAVE模型在多岛屿区域波浪要素计算中的应用

我国常用的风推浪计算方法在多岛屿区域波浪要素计算中具有一定局限性。论文通过不同方法计算的波浪要素计算结果的比较,认为STWAVE模型在满足计算精度的前提下,操作简单,方法简便,在多岛屿区域波浪要素计算中具有较大的应用、推广价值。     

北黄海长山群岛海域环境现状评价

本文根据１９８９年７月至１９９０年５月北黄海长山群岛海区四个航次（春、夏、秋、冬）水质及底质１４０００余个数据的分析测试结果，探讨了测区水质、底质各要素分布特征，并对其环境质量现状作了初步评价。结果表明，调查区环境质量良好，南部海域环境优于北部。     

厄尔尼诺及反厄尔尼诺事件对青岛及近海气象水文要素的影响

本文以青岛90年的气象资料及朝连岛30年水文资料,与本世纪以来所发生的厄尔尼诺事件及五十年代以来出现的反厄尔尼诺事件,进行对比。从中找出关系较大的几种要素,进行统计分析,得出一些有参考价值的结论。     

黄海冷水域水化学要素的垂直分布特性

黄海夏季深层冷水(简称黄海冷水), 又称为黄海冷水团, 已为海洋物理学家进行过较多的研究。该水域化学研究开展较晚，近年来顾宏堪首先报道了黄海夏季溶解氧垂直分布最大值与黄海冷水密切相关。黄海冷水与其它水团一样，理、化、生物等特性是相互关联的统一体。遗憾的是，迄今尚未见到有关于此的多学科综合性的研究报道。 本文根据1959年海洋调查资料，对黄海冷水域主断面水文化学要素的垂直分布特性进行了研究，并讨论了该冷水形成及诸参数变化的原因。     

刍论大连湾底质地化环境

本文根据1987年的调查资料,总结阐述了大连湾底质地化环境诸要素的分布规律及其特征,运用相关分析法,通过多元回归计算求得了诸要素之间的关系。经过综合因素分析,得出了大连湾氧化还原环境分区、还原环境的成因及发展趋势。     

灵山岛附近水域温,盐度特征

灵山岛附近水域的温、盐度年变幅均较小,夏季中,下层的水温较邻近水域偏低,非常适宜于发展海珍品(海参、鲍鱼等)增养殖和旅游业,同时也是某些人工养殖经济鱼类(真鲷、黑鲷等)渡夏的良好场所。     

Bottom Simulating Reflector and Gas Seepage in Okinawa Trough： Evidence of Gas Hydrate in an Active Back-Arc Basin

To look for gas hydrate, 22 multi-channel and 3 single-channel seismic lines on the East China Sea (ECS) shelf slope and at the bottom of the Okinawa Trough were examined. It was found that there was indeed bottom simulating reflector (BSR) occurrence, but it is very rare. Besides several BSRs, a gas seepage was also found. As shown by the data, both the BSR and gas seepage are all related with local geological structures, such as mud diapir, anticline, and fault-controlled graben-like structure. However, similar structural "anomalies" are quite common in the tectonically very active Okinawa Trough region, but very few of them have developed BSR or gas seepage. The article points out that the main reason is probably the low concentration of organic carbon of the sediment in this area. It was speculated that the rare occurrence of gas hydrates in this region is governed by structure-controlled fluid flow. Numerous faults and fractures form a network of high-permeability channels in the sediment and highly fractured igneous basement to allow fluid circulation and ventilation. Fluid flow in this tectonic environment is driven primarily by thermal buoyancy and takes place on a wide range of spatial scales. The fluid flow may play two roles to facilitate hydrate formation:to help gather enough methane into a small area and to modulate the thermal regime.