技术
- 分析与建模 - 实时分析
- 传感器 - 温度传感器
适用行业
- 电网
- 可再生能源
适用功能
- 维护
- 产品研发
用例
- 施工管理
- 数字孪生
关于客户
Sterlite Power Transmission Limited 是印度能源传输基础设施项目的全球领先开发商。该公司获得了印度电力部颁发的 NER-II Transmission Limited 项目,作为印度对东北地区经济发展和旨在快速减少碳排放的可再生能源目标的承诺的一部分。该项目旨在为印度最偏远地区超过3000万居民提供服务,旨在提高供电可靠性,减少间歇性,并加速可再生能源在东北地区的渗透。 Sterlite Power 的使命是消除基础设施瓶颈并为可持续电力供应创造有利的环境。
挑战
Sterlite Power Transmission Limited 负责 NER-II Transmission Limited 项目,这是一项耗资 19.5 亿印度卢比的可再生能源计划,旨在为印度最偏远地区的超过 3000 万居民提供服务。该项目涉及开发全长448公里的输电线路,并在特里普拉邦建设一座400千瓦/132千瓦变电站。该变电站对于特里普拉邦供电至关重要,需要尽快完工。然而,该项目面临着一些挑战。项目所在地地理环境条件复杂,地处喜马拉雅山麓,森林茂密,经常遭受暴雨和洪涝灾害。紧迫的时间表和土著居民的抵制增加了复杂性。 Sterlite Power 用于变电站规划的传统 2D 设计方法的数据共享潜力很小,并且不支持设计团队检测电气组件和支撑结构之间潜在间隙问题的需求。他们的传统软件在管理相互依赖性以及链接设计、规划和施工工作方面能力有限。这些低效率给变电站的时间安排带来了巨大的风险,延长了检查、利益相关者的批准和移交的时间。
解决方案
为了克服这些挑战,Sterlite Power 采用了数字孪生技术,并使用 Bentley 的 OpenUtilities Substation 和 ProjectWise 建立了开放、互联的数据环境。这一转变使他们能够建立 3D 协作建模环境,以简化设计工作流程、促进准确的信息共享,并实现结构和设备之间的早期冲突检测。他们开发了一个数字组件库,为设计提供可追溯性和责任感,将这些组件模型作为符号导出,以开发整个变电站模型布局并确保设备之间的正确连接。这种方法促进了团队和利益相关者之间无缝、准确的信息共享,有助于克服设计挑战并获得地方当局铺设输电线路的许可。为了进一步完善设计并加强施工规划,Sterlite Power 采用了 SYNCHRO 的 4D BIM 技术,进行实时、虚拟的施工监控和模拟。该软件可实现稳健的规划、链接设计和调度流程,然后将所有项目活动映射到 3D 模型,以便更好地了解项目计划。数字模型有助于可视化设计变更的影响,促进准确的、数据驱动的决策,并避免现场施工错误。
运营影响
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