烟花爆竹生产安全问题探析

烟花爆竹生产由于行业的特殊性，危险性很大。近年来，烟花爆竹安全生产形势严峻，事故频发，危害严重。笔者在调查研究的基础上，分析了烟花爆竹生产的危险性以及引发事故的主要原因。着重讨论了烟花爆竹安全生产的可行性途径，强调提高准入门槛，严格安全生产许可证的核发；加大监督管理力度，严格规章制度的落实；发展地方经济，从根本上防止非法生产；并通过对湖南浏阳花炮生产安全管理的分析，探讨安全文化建设在烟花爆竹这一高危行业的作用，认为烟花爆竹行业要发展，要尽可能减少事故的发生，一定要注重安全管理，注重企业安全文化建设，注重提高从业人员的安全文化素质。     

可移动危险源动态安全监控的探索与展望

简述近年来可移动危险源的严重事故及惨痛教训,究其重要原因之一就是缺乏对可移动危险源的动态安全监控,指出开展可移动危险源动态安全监控的迫切性;从而对建立可移动危险源动态安全监控体系的指导思想与功能设计进行了比较深入的探索,利用全球移动通信系统(GSM),全球定位系统(GPS),地理信息系统(GIS)和计算机网络技术相结合,对可移动危险源实施动态安全监控,以实现对其严重事故的有效控制,并对完善可移动危险源动态安全监控体系作了进一步的展望。     

森工企业伐木作业事故成因分析与预防措施

以森工企业伐木作业三起事故为案例,对造成事故的原因进行了分析,根据事故成因提出了相对应的事故预防措施.     

基于模糊评价法的建筑安全事故预测模型

针对建筑工程安全领域中许多对象具有"内涵明确,外延不明确"的特点,本文利用模糊数学对建筑安全事故影响因素进行度量,通过层次分析法确定各影响因素权重,提出了一种基于模糊评价法的建筑安全事故预测模型,解决了建筑生产中安全事故的即时预测,并通过实例给予说明,说明了模型在建筑安全事故预测中的有效性和实用性.     

重大危险源辨识与监控是企业建立事故应急体系的基础

本文简要介绍了重大工业事故预防控制体系要素和国家法律、法规与政策对企业重大危险源监控与应急体系建设的要求,论述了重大危险源辨识、监控是企业建立事故应急体系和重大事故预防控制体系的基础和前提,对企业重大危险源监控和应急预案编制要求提出了建议.     

City hazardous gas monitoring network

In our today's societies, many dangerous chemicals are produced and transported. Due to the vast use of chemicals, more chemical accidents are taking place with huge losses. In this study a city hazardous gas monitoring network was designed to detect the dispersion of toxic and combustible gases in the primary stages. The network could cover hazardous chemical facilities, important hazardous chemical routes, warehouses and special locations which may be the targets of terrorist attacks. The network is consisted of several local networks and a central control panel complex. Each local network has a local control panel in the center and many detectors and sounders around it at distances less than 3000 m that communicate with the local control panels wirelessly. In each location there are two types of gas detectors, toxic and combustible, and a sounder which are equipped with a wireless, radio frequency modem allowing the units to communicate readings and other information on a real-time basis with a remotely located local control panel. High sensitive Photo Ionization Detectors, PIDs, are used to provide fast and low-level on-site screening for chemicals contamination. Combustible gas detectors are the second choice to sense the combustible gas and verify the readings of PIDs in this regard. The central panel consists of several connected control panels work uniquely helping a computer set and the appropriate software and communicate with local control panels via telephone lines. All of the network components are shown on the monitor of central panel with special symbols by geographical information system program. The system is fully addressable so that the high level detection of a detector produces a blinking color double-circle around its symbol in GIS plan. In case of high level gas detection, a team of experts who are fully equipped with different portable detectors depart to the site to test the field to identify the chemicals. All readings of detectors are saved in a data bank and then analyzed to find any chemicals spills and leakages. The network was simulated by a special program so that the components of local networks and the central panel are shown in separate windows. By clicking on one detector on environmental window the formerly designed responses will be activated in central panel window.     

The indirect involvement of buses in traffic accident processes

The involvement of buses in accidents usually is assessed implicitly on the basis of the direct involvement of the bus in the collision or in injury production. This paper deals with the scope and forms of indirect involvement of buses (as a sight obstruction, for example). Accidents were selected by identifying the presence of the term ‘bus’ or synonyms in the text parts of complete police reports (testimonies, statements by the persons involved, etc.) available in electronic form, then analysed in detail. Direct or indirect involvement of a bus is found in 3.6% of traffic injury accidents reported by the police in the community studied (direct involvement: 1.4%; indirect involvement: 2.2%). The different forms of indirect involvement are then described, and some possibilities of preventive measures are discussed.     

2016—2020年全国化工和危险化学品事故分析研究*

为分析“十三五”期间（2016—2020年）我国化工和危险化学品事故发生情况，统计“十三五”期间化工和危险化学品事故数量及死亡人数，从发生月份、发生区域、行业分布等方面分析事故特征，从事故类别、事故环节、关键作业等方面分析事故原因，总结2011—2020年我国化工和危险化学品事故发展趋势，按照全国4大经济区域研究2013—2020年事故特征。结果表明:“十三五”期间我国化工和危险化学品事故数量呈下降趋势，死亡人数出现波动，总体形势较为平稳。2011—2020年化工和危险化学品事故风险向中西部转移趋势明显，东北、西部地区事故死亡率普遍高于东部地区。研究结果可为相关行业从业者及监管部门提供决策参考。     

我国核事故应急“十三五”规划思路研究

通过分析我国核事故应急体系在应急预案、应急指挥、应急救援、技术支持、应急演习等多方面的已有能力,学习国外核电强国的核应急管理经验,总结福岛核事故应急的经验教训,发现我国现有核事故应急体系存在的问题,并提出"十三五"期间我国核事故应急的主要对策和措施,以期为我国核事故应急体系建设提供科学的和系统的工作思路。     

重庆市突发环境事件时空格局及影响研究

基于2009年-2015年重庆市突发环境事件统计数据,研究了重庆市近7年突发环境事件的动态变化趋势、空间分布格局及污染影响特征,讨论了引发突发环境事件内外部因素之间的关系.结果表明:重庆市7年内共发生突发环境事件134起,且呈波动下降趋势,春季和夏季为交通事故和自然灾害高发期;突发环境事件空间上主要集中在主城九区及相邻的区县,渝西、渝东南及渝东北各区县发生次数较少.道路交通事故、设备故障和操作不当是导致突发环境事件的主要因素,主要发生形式为泄漏.污染类型主要为水污染和水气复合污染,污染物出现频率大小为:油类>酸碱类>液氨>苯及其化合物>减水剂>其他各种污染物.