TurboTides is a newly architected, advanced software package for the design of radial, mixed-flow, and axial turbomachinery
◆ Air Compressors
◆ Process Compressors
◆ Refrigeration compressors
◆ Centrifugal pumps
◆ Fans and blowers
◆ Waste Heat Recovery ORC Turbines
◆ Gas turbines and more!
The TurboTides Concept
TurboTides was developed by an expert global team with decades working in the turbomachinery industry. TurboTides is not only a highly integrated, interdisciplinary, groundbreaking CAE package for turbomachinery design, but also a powerful platform to digitize and manage the cumulative design experience, knowledge, resources and other intellectual property of turbomachinery manufacturers.
TurboTides provides an advanced R&D platform to achieve the goal of standardizing the design process and supporting the reuse and full exploitation of current and past designs. TurboTides accomplishes this through a unique combination of fully parametric design, turbomachinery-specific data storage and retrieval, direct design methods and multidisciplinary design optimization, all within a single, fully integrated package.
Design System Integration
TurboTides is a new software that takes full advantage of the latest and most modern engineering and software development tools and practices so that it provides a highly integrated, all-in-one R&D platform. All key functions for turbomachinery design are fully integrated into the TurboTides platform, including:
◆ Cycle Analysis
◆ 1D Meanline Design and Performance Prediction
◆ 2D Throughflow and Blade-to-Blade Analysis
◆ 3D Geometry Generation and Blade Shaping
◆ CAD Import and Export Interfaces
◆ 3D CFD with Automatic Grid Generation
◆ 3D FEA for stress, thermal, and modal analysis
◆ Multi-level and multi-disciplinary optimization
◆ Knowledgebase Management
Design Process Standardization
TurboTides provides an interdisciplinary workflow management system that enables a standardized design process. By considering aerodynamic performance, mechanical design, and manufacturing at each stage of the design process, potential issues can be addressed as early as possible in each design project.
TurboTides allows manufacturers both to standardize their design process and include multi-level optimization (from cycle, 1D, 2D, to 3D) to reduce design time, improve the design success rate, and improve the performance of their turbomachinery designs.
Design Knowledge Customization
There are various turbomachinery design models and methods for different types and applications. TurboTides allows users to apply different customizable design rules and knowledge to different applications. TurboTides offers specific design models and tools for gas turbines, turbochargers, ORC, super-critical CO2 compressors and expanders, refrigeration and heat pump compressors, process compressors, turboexpanders, centrifugal pumps, etc. Meanwhile, TurboTides offers services to customize the design system to user’s special needs, such as specific reports or a customized work flow.
Design Experience Digitization
The accumulation of design experience is essential for the long-term health any advanced turbomachinery manufacturer. TurboTides provides a powerful system for design experience digitization and technology management that has not previously been available to the turbomachinery industry.
With TurboTides, users can utilize proven design methods to mitigate design risks and shorten design phases. Find an existing design that is close to what is needed, for example, and do a shroud cut or radius trim to fit the new conditions. Use the advanced reverse-engineering tools to import past designs into the design knowledgebase whether they were designed in TurboTides or not.
TurboTides provides UDF (User-Defined Functions) for user’s innovations; and helps users to digitize and manage design knowledge.
Along with the preserving your organizational knowledge of turbomachinery design, TurboTides will enable the future development and application of machine learning and AI design capabilities to your turbomachinery designs.
TurboTides can analyze and design various turbomachinery thermodynamic cycles for determining boundary conditions for turbomachinery.
TurboTides cycle analysis supports gas/liquid separation and extraction for intercoolers and condensing turbines.
The 1D Meanline capability calculates meanline-averaged inlet/outlet thermodynamic conditions and velocity triangles for each element in the flow path and predicts overall design-point and off-design performance of one or any number of stages.
Based on the design condition provided by users, 1D Meanline can perform preliminary geometry design and generate a valid starting flow path geometry. An easy three-step TurboTides Design Wizard helps even a new user arrive at a good starting design using TurboTides' built-in design rules for different turbomachine classes and applications.
The Data Reduction capabilties of TurboTides 1D Meanline allow either experimental data or CFD results to be used for refining meanline modeling parameters to yield very accurate predictions of stage performance over the full range of operation and not only at the design point.
A validated meanline model helps users to plan optimization strategies for all stages together, or within a single stage or single component of a stage, and provides reliable performance predictions for similar designs. Components can then be further studied or optimized using CFD.
The Geometry Modeler is used for the design of any kind of radial, mixed-flow, and/or axial turbomachinery, including pumps, compressors, and turbines of all kinds.
Using the modern, intuitive graphical user interface, users can easily edit and modify flow path components. Feedback from 2D throughflow and blade-to-blade flow analysis allows the designer insight into the impact of changes to the flow path contour, blade shapes, or other design parameters.
The Geometry Modeler is the “hub” of TurboTides, connecting the core functions and ensuring all design and simulation methods access the same, unified geometry model. It can generate default 3D geometry from the 1D Meanline and generate a 1D model from a 3D geometry model, either one imported from CAD or one generated natively in TurboTides.
When the Geometry Modeler is used with the CFD, FEA, and optimization, the optimized geometry will be available within the geometry modeler and stored in the TurboTides Knowledgebase.
2D throughflow and blade-to-blade analysis is used to get nearly immediate feedback on design changes as the blade rows and other flow path elements for a single component, full stage, or multiple stages are designed. For axial compressor and turbine airfoils, flow conditions can vary sufficiently from hub to tip something more detailed than a meanline model is required.
TurboTides 2D flow analysis automatically generates the grid according to the existing geometry model. The solver then solves the 2D Euler equations (by adopting empirical models) to get velocity and thermodynamic parameters of the 2D flow field. During through flow design, The 2D flow analysis can be used in combination with the geometry modeler and optimization capability to adjust airfoil shapes to meet an objective function based 2D flow field results.
A validated 2D throughflow model can complete calculations and analysis for an axial compressor or turbine with more than 10 stages in very short time and can provide predictions to new working conditions or modified designs in a very short time. Individual blade rows or multiple stages can then be optimized using CFD.
TurboTides provides powerful Input/Output functions for widely-used 3rd-party CAD formats.
After importing external CAD models, TurboTides captures the key features (main blades, splitter blades, fillets, edges, etc.) of the original model and then reconstructs the parametric model for the components accurately and reliability.
The imported models can be easily used for multiple purposes:
TurboTides can also export the 3D model to 3rd party CAD formats for manufacturing or for further detailed analysis.
TurboTides CFD analysis is turbomachinery-specific and allows preprocessing, solving, and post processing all through a single, easy to use interface.
Based on the detailed 3D geometry generated by the Geometry Modeler, TurboTides CFD can generate structured or unstructured grids automatically to simulate main flow path or flow path branches. If necessary, users can optimize and adjust the grid.
The core of TurboTides' embedded CFD capability is a pressure-based, implicit, unstructured solver developed by the TurboTides team, which can solve incompressible flow and both subsonic and supersonic compressible flow. The solver adopts acceleration technologies such as AMG and Open MP parallel calculations to provide useful results quickly. With sufficient validations, the result of this solver are comparable to standalone CFD packages while being much easier and less time-consuming to learn and use.
TurboTides CFD provides rich functions for turbomachinery-specific postprocessing, including grid parameter reports, flow field display, analysis reports, time-averaged or flow-averaged quantities, etc.
TurboTides' FEA analysis can perform structural analysis, thermal analysis, modal analysis of blades and disks.
Based on 3D model generated by the Geometry Modeler, TurboTides' can generate non-structured grids of blades and disks automatically. If necessary, users can adjust or optimize the grid. The FEA function can extract wall boundary conditions from 1D Meanline or 3D CFD automatically. Meanwhile, it also provides post processing functions including stress and strain display, vibration analysis report, etc.
FEA analysis in TurboTides is so fully automated that it can be looped into an optimization process together with cycle, 1D Meanline, geometry generation, and either 2D or 3D CFD to allow a design to be optimized while remaining within specified structural constraints for stresses or natural frequency margins.
One of the most unique features of TurboTides, the Knowledgebase provides users a platform to accumulate design experience and technology.
Conventional turbomachinery design tools assume you will design each and every stage from scratch.
TurboTides instead includes a purpose-designed Knowledgebase so you build on your success:
The accumulation of design experience is essential for ongoing technology development. Own your future!
TurboTides' optimization capabilities provides local and overall optimization within the TurboTides application.
Users can define the optimization process and target function; call other functions including Cycle, 1D, 2D, 3D geometry, grid generation, CFD, and FEA; and access input parameters and results from all steps in the design proces.
By multi-level and multi-disciplinary optimization, users can find the optimal design while considering all the requirements of the cycle, aerodynamic performance, and structural design.
In addition to the built-in optimizer, TurboTides also can integrate with an optional full-function CFD-based optimization package OASIS™ .
A powerful and proven optimization package, OASIS can optimize designs efficiently based on CFD model results or experimental data and can incorporate other software into the optimization in addition to any of the design tools within TurboTides.
OASIS is a trademark of
We look forward to serving you with TurboTides, the newest and most advanced design software package for all kinds of turbomachinery.
103 Hanover Street, Suite 17, Box 2, Lebanon, New Hampshire 03766, United States
February 21, 2019. College Station, TX.
TurboTides Inc. (Lebanon, NH) is proud to announce that Yintao Wang, Turbomachinery Application Engineer at TurboTides, has earned his PhD in Mechanical Engineering.
Dr. Wang joined TurboTides Inc. as a PhD candidate from the prestigious Texas A&M University Turbomachinery Laboratory in May 2018. Dr. Wang studied under Prof. Gerald Morrison, now Professor Emeritus at TAMU, and Prof. Adolfo Delgado, who was his PhD committee chair.
Please join us in congratulating Dr. Wang on this exciting achievement! As always, he can be reached at email@example.com.
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