SimFWD addresses key areas in the field of Ship Design, like Ship Structural Analysis & Ship Hydrodynamic Analysis. Using advanced engineering methods like Finite Element Analysis (FEA) & Computational Fluid Dynamics (CFD), we deliver precise and high quality engineering solutions.
Computational Fluid Dynamics
Computational Fluid Dynamics
Computational Fluid Dynamics
Computational Fluid Dynamics
Ship Design
Ship Structural Analysis
Ship Structural Analysis
Ship Structural Analysis
Despite the current conditions in Passenger Service Markets, SimFWD’s latest in-house design is an innovative 110-metre Ropax ferry that can transport up to 1000 passengers and 125 cars. SF-110 is designed for maximum speed and economy, while the developed layout and access arrangement make it an ideal choice for inter-island services. The design of a hybrid, battery backed propulsion package is currently under development.
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Presented below are results of Flow Analysis for an Exhaust Gas Collector. Air flow was investigated for sea-going and maneuvering conditions.
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All Capesize vessels (DWT>120.000) at the port of Hedland, Australia are required to have at least one set of 120T SWL Bitts and Panama leads/roller fairleads on the vessel’s aft deck. This new requirement will come into force on 1st Feb 2021.
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#FiniteElementAnalysis #FEA #ShipStructuralAnalysis #SF-110 #simfwd #shipdesign #marinetechnology #EGCS-Retrofit #CFD #FlowAnalysis #ComputationalFluidDynamics #GreenShipping #StrengthAnalysis #PortHedland
For more information on the analysis of mooring and towing fittings, contact us at info@simfwd.com.
What is Finite Element Analysis (FEA)?
Finite Element Analysis (FEA) is a numerical method used in engineering and physics to analyze and solve complex problems involving the behavior of structures, materials, and physical systems. It is widely employed to simulate and predict the response of objects or systems under various conditions, such as mechanical stress, heat transfer, fluid flow, and electromagnetic fields.
The fundamental concept of FEA is to divide a complex object or system into smaller, finite-sized elements, and then analyze the behavior of each element individually. These elements are interconnected at specific points called nodes. By approximating the behavior of each element and its interactions with neighboring elements, FEA can provide a detailed understanding of how the entire system behaves. The analysis is typically performed using computer software, which solves a system of equations that represents the behavior of the entire structure or system.
Here are some key applications of Finite Element Analysis:
Structural Analysis: FEA is often used to analyze the stress, strain, and deformation of structures like bridges, buildings, aircraft, and mechanical components. It helps engineers assess the safety and performance of these structures under various loads and conditions.
Thermal Analysis: FEA can be applied to study heat transfer and temperature distribution in objects or systems. This is valuable for designing cooling systems and ensuring thermal stability in electronic devices and industrial processes.
Fluid Dynamics: Computational Fluid Dynamics (CFD) is a specialized application of FEA used to analyze fluid flow and heat transfer in systems such as pipelines, turbines, and cooling systems.
Electromagnetic Analysis: FEA can model the behavior of electromagnetic fields in electrical devices, antennas, and circuits. This helps optimize the performance and efficiency of such systems.
Acoustic and Vibrational Analysis: FEA can be used to analyze how structures or components respond to acoustic and vibrational forces. This is important in designing products that need to minimize noise and vibration.
Manufacturing Processes: FEA is used to simulate manufacturing processes like metal forming, welding, and casting to predict how materials will behave during fabrication.
Finite Element Analysis is a powerful tool for engineers and scientists because it allows them to explore and optimize designs without the need for expensive and time-consuming physical prototypes. It has applications in a wide range of industries, from aerospace and automotive to civil engineering, electronics, and material science.