技术
- 应用基础设施与中间件 - 数据可视化
- 网络与连接 - 路由器和网桥
适用行业
- 水泥
- 建筑与基础设施
适用功能
- 采购
- 产品研发
用例
- 施工管理
- 数字孪生
服务
- 测试与认证
关于客户
PT。 Waskita Karya (Persero) Tbk 是一家从事建筑行业的国有企业。受印度尼西亚交通部委托,将雅加达南部的Manggarai车站改造成该市长途列车的终点站。该公司的任务是建造一座新桥梁并组装轨道板,以将现有的一楼主线轨道连接到主楼新的二楼铁路线。该项目对于改善客流并确保 Jabodetabek 和苏加诺-哈达机场铁路沿线每天超过 100,000 名通勤者的可靠运输至关重要。由于与现行标准和现有条件存在差异,瓦斯基塔还被要求对现有合同图纸进行设计审查。
挑战
PT。 Waskita Karya (Persero) Tbk 受印度尼西亚交通部委托,将雅加达南部的 Manggarai 车站改造成该市的长途火车终点站。该项目涉及建造一座新桥梁并组装轨道板,以将现有的一楼主线轨道连接到主楼新的二楼铁路线。该项目对于改善客流和确保可靠的运输至关重要,但它也带来了重大的施工限制。其中包括在720天的合同期内进行设计审查、在整个施工过程中维持列车运行以及控制预应力混凝土桥段的成本(该成本占项目总预算的30%)。由于与现行标准和现有条件存在差异,瓦斯基塔还被要求对现有合同图纸进行设计审查。该团队意识到,他们传统的基于纸张的 2D 流程不足以应对这些挑战,他们需要更先进的解决方案。
解决方案
Waskita 决定采用集成 BIM 工作流程和数字孪生方法来开发可视化数字工作流程、改善沟通并实现及时、准确的决策。他们选择 Bentley 的 ContextCapture 来生成当前基础设施的 3D 实景网格,选择 OpenRail Designer 来建模 1.5 公里的新铁路轨道,并选择 OpenBridge Designer 来建模混凝土桥梁结构。通过这些集成应用程序,他们建立了一个数字孪生,其中结合了现有场地条件和拟议结构的多学科 BIM 设计模型。这种数字孪生显着提高了团队的生产力,并取代了 2D CAD 绘图作为决策工具。 Waskita 还使用 OpenBridge Modeler® 和 SYNCHRO 4D 来解决混凝土桥段设计和施工限制的问题。这些工具帮助他们计算精确的几何形状,协调每个桥段的信息,并执行施工模拟以可视化计划的活动并将其清晰地传达给客户和利益相关者。
运营影响
数量效益
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