针对新项目的创新及协作式同步项目管理
作为舰船和海上平台高性能设备的开发者,船舶供应商面临着诸多挑战:全球性竞争,多地制造,开发周期缩短,总拥有成本降低,燃料经济以及受法规限制的排放标准。 这些挑战需要在一个一体化环境中使用一套集成化的设计、仿真和制造解决方案。
Cox Marine is a British start-up with a serious desire to change things for the better. This is clearly what they've done with their first product, the CXO300 outboard engine, which is packed with punch yet 25% more fuel efficient and cleaner than most other outboards in the global marine industry. One of the most powerful diesel outboards on the market, this high-performance 300 horsepower engine promises to last three times longer than comparable models.
Today’s marine market demands greener, smarter, and more high-tech vessels. To remain competitive, shipbuilders must deliver those vessels on time, on budget, and on quality. Our Integrated Ship Design and Engineering solution enables marine companies to remain in control of the design spiral. By bringing all their multidisciplinary design data, processes, and tools in one centralized environment, they can break down information and collaboration silos, boost innovation, and improve enterprise productivity.
As the demand for high value-added vessels increases, so does the need to identify and mitigate the risks associated with more complex design and manufacturing processes. This need is compounded by the current climate of unpredictability and increased competition in the shipbuilding market. To remain competitive, a shipyard must deliver bids that are both attractive and accurate. To this end, having a fully planned, resourced, and budgeted end-to-end project management solution has become critical.
当今监管日益收紧,市场需求不断变化。为应对这一现状,船舶需要比以往更环保、更安全、更智能、更具成本效益、更互通互联且适应性更强。随着本已高度复杂的产品不断增添新的功能,设计、制造和维护等过程需要更多相关方(例如供应商、分包商、合作制造商)参与进来。商用船舶的使用寿命可达 40 年,而军舰的使用寿命则可达 50 年。因此,健全船舶生命周期管理显然并非可有可无,而是至关重要。
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Shipyards can dramatically improve content creation and management of documentation across the product lifecycle by using PLM to integrate ship design and technical publication domains. Our solutions enable engineering design and technical publication groups to share information across system repositories, reuse content and automate common domain functions and processes.
The demand for sustainable ships is growing significantly. By ensuring that future classes of ships and the shipyards that design and build them are fully compliant with both current and future environmental requirements in all stages of a ship lifecycle, this solution will support your eco-design initiatives and help you minimize the risks and costs associated with noncompliance.
要出色地设计任何船舶,流体动力学性能工程都至关重要。我们的解决方案能够在真实的运行条件下全面分析船舶的流体动力学性能。仅需使用一个虚拟船模试验池,即可检查流体或性能的所有方面,例如船身阻力、自动推进、操纵、船舶加速度、附体形状以及校准情况。
要提高燃油效率,需要采取整体性的发动机和传动系统设计方法。我们的组合式测试和高级仿真产品组合能够对发动机设计和集成的各个方面进行详细分析。
Sound structural integrity is critical for viable operation, crew and passengers’ safety and comfort, as well as minimal environmental impact. Our simulation and testing solutions can predict fatigue life and hotspots while optimizing a product for durability.
Ensuring efficient vessel performance requires integration and optimization of multiple complex systems. Our solutions allow designers to check system architecture impacts on the complete vessel performance before any physical development takes place. Simulate and validate components early in the design cycle, and accurately predict system performance.
Today’s marine market demands greener, smarter, and more high-tech vessels. To remain competitive, shipbuilders must deliver those vessels on time, on budget, and on quality. Our Integrated Ship Design and Engineering solution enables marine companies to remain in control of the design spiral. By bringing all their multidisciplinary design data, processes, and tools in one centralized environment, they can break down information and collaboration silos, boost innovation, and improve enterprise productivity.
As the demand for high value-added vessels increases, so does the need to identify and mitigate the risks associated with more complex design and manufacturing processes. This need is compounded by the current climate of unpredictability and increased competition in the shipbuilding market. To remain competitive, a shipyard must deliver bids that are both attractive and accurate. To this end, having a fully planned, resourced, and budgeted end-to-end project management solution has become critical.
当今监管日益收紧,市场需求不断变化。为应对这一现状,船舶需要比以往更环保、更安全、更智能、更具成本效益、更互通互联且适应性更强。随着复杂性的不断提升,设计、制造和维护等过程需要更多相关方参与进来。商用船舶的使用寿命可达 40 年,而军舰的使用寿命则可达 50 年。因此,健全船舶生命周期管理显然并非可有可无,而是至关重要。
愈加严格的规程和日益增加的定制功能需求,推动了对更复杂船舶的需求。随着竞争加剧,这波复杂性的需求对车间产生冲击,并且经济不确定性上升正迫使船厂降低生产成本和上市时间。如果船厂想要保存竞争力,就必须在成本之内按照规格按时交付。但面对如此低的利润空间,船舶制造商如何在不影响质量的前提下不断降低生产成本?
As the economic slowdown continues to impact the already overcrowded shipping market, ship owners and operators are looking to maximize profit margins by lowering operational costs and improving vessel availability. At the same time, the rise of information and communication technology is opening new horizons for shipping companies and shipbuilders alike. So how can the marine industry capitalize on the sea of newly available data to improve the current ship service and maintenance model?
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随着排放标准和法规日趋严格,船舶性能的方方面面都急需得到完善。要圆满达成性能目标,必须在短时间内交付富有成效的创新型设计。利用我们的解决方案,您不但能够检查船舶设计的各个方面,还能满足甚至超越所需的设计标准。
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Ship construction is a complex and lengthy process that demands careful planning and timely decision-making. Plan, optimize and validate ship construction processes before building. Use a broad range of tools to streamline your process planning workflows, automate non-value-added planning tasks and validate the best shipbuilding plan. These tools facilitate process design and sequencing, production BOM and BOP management, time management, 3D shipyard layout and ergonomic analysis. Control ship and production lifecycles from process planning and detailed engineering to full production by connecting the entire value chain to realize the best production strategy.
HVAC systems are critical for ensuring the safety and comfort of crew members and passengers. Getting HVAC systems right can improve both energy requirements and internal space utilization. Reduce design time and energy consumption, improve production quality, and maximize available internal space with our next-generation software for designing HVAC equipment and systems for ships and offshore structures.
The demand for sustainable ships is growing significantly. By ensuring that future classes of ships and the shipyards that design and build them are fully compliant with both current and future environmental requirements in all stages of a ship lifecycle, this solution will support your eco-design initiatives and help you minimize the risks and costs associated with noncompliance.
要出色地设计任何船舶,流体动力学性能工程都至关重要。我们的解决方案能够在真实的运行条件下全面分析船舶的流体动力学性能。仅需使用一个虚拟船模试验池,即可检查流体或性能的所有方面,例如船身阻力、自动推进、操纵、船舶加速度、附体形状以及校准情况。
要提高燃油效率,需要采取整体性的发动机和传动系统设计方法。我们的组合式测试和高级仿真产品组合能够对发动机设计和集成的各个方面进行详细分析。
Sound structural integrity is critical for viable operation, crew and passengers’ safety and comfort, as well as minimal environmental impact. Our simulation and testing solutions can predict fatigue life and hotspots while optimizing a product for durability.
Propeller performance is the key for efficient conversion of generated power into thrust force. We provide all the necessary tools to analyze propulsion system performance, from the propeller in isolation to sub-systems and full system performance for complete power management. Predict propeller performance, cavitation, and erosion using our hydrodynamics simulation capabilities, then analyze noise and dynamic response, vibration and structural integrity with our powerful 3D tools.
优化船舶的空气动力学性能对于运行安全性、高效性以及乘客舒适性至关重要。我们的解决方案可预测上部结构阻力和风载荷,并提高空气动力学效率。通过使用我们的多物理场仿真工具分析排放情况和直升机甲板安全性,您可以在设计流程的早期阶段评估危急情况。
Ensuring efficient vessel performance requires integration and optimization of multiple complex systems. Our solutions allow designers to check system architecture impacts on the complete vessel performance before any physical development takes place. Simulate and validate components early in the design cycle, and accurately predict system performance.
Today’s marine market demands greener, smarter, and more high-tech vessels. To remain competitive, shipbuilders must deliver those vessels on time, on budget, and on quality. Our Integrated Ship Design and Engineering solution enables marine companies to remain in control of the design spiral. By bringing all their multidisciplinary design data, processes, and tools in one centralized environment, they can break down information and collaboration silos, boost innovation, and improve enterprise productivity.
As the demand for high value-added vessels increases, so does the need to identify and mitigate the risks associated with more complex design and manufacturing processes. This need is compounded by the current climate of unpredictability and increased competition in the shipbuilding market. To remain competitive, a shipyard must deliver bids that are both attractive and accurate. To this end, having a fully planned, resourced, and budgeted end-to-end project management solution has become critical.
当今监管日益收紧,市场需求不断变化。为应对这一现状,船舶需要比以往更环保、更安全、更智能、更具成本效益、更互通互联且适应性更强。随着复杂性的不断提升,设计、制造和维护等过程需要更多相关方参与进来。商用船舶的使用寿命可达 40 年,而军舰的使用寿命则可达 50 年。因此,健全船舶生命周期管理显然并非可有可无,而是至关重要。
As the economic slowdown continues to impact the already overcrowded shipping market, ship owners and operators are looking to maximize profit margins by lowering operational costs and improving vessel availability. At the same time, the rise of information and communication technology is opening new horizons for shipping companies and shipbuilders alike. So how can the marine industry capitalize on the sea of newly available data to improve the current ship service and maintenance model?
Displaying of solutions.
了解低代码解决方案在船舶行业的优势所在
近年来,船舶行业面临的各种趋势为标准设计方法和模型带来压力。但显而易见的是,船舶制造商需要创新,才能在这样困难的处境中保持竞争优势。船舶设计软件是应对此行业大量复杂性以及实施集成式船舶设计和工程方法的必要工具。
了解协同仿真如何帮助预测船舶排放和所需的发动机功率
预测和减少流体空化对于很多工业应用都至关重要,包括船舶推进器。计算流体力学 (CFD) 可以用于预测流体空化并在设计流程早期探索备选设计。本白皮书探讨船舶推进器空化仿真的重要方面。它评估准确仿真潜在错误的相对影响、如何降低其影响以及在比例模型物理测试过程中模拟全尺寸推进器的优势所在。