Get the best advanced engineering courses on Abaqus
Get the best advanced engineering courses on Abaqus
How will Advanced Engineering Courses help me?
ABAQUS FEA Training (Free cantilever beam tutorial)
Abaqus for beginners (Mechanical Engineering)-Free Version
Python scripting in ABAQUS-(FREE Version)
UMAT Subroutine (VUMAT Subroutine) in ABAQUS-Free Version- UMAT Abaqus example
"UMAT Subroutine (VUMAT Subroutine) introduction" is used when the material model is not available in ABAQUS software. If you follow this tutorial package, including standard and explicit solver, you will have the ability to write, debug and verify your subroutine based on customized material to use this in complex structures. These lectures are the introduction to writing advanced UMAT and VUMAT subroutines in hyperelastic Martials, Composites, and Metal, and so on. Watch Demo
"Advanced UMAT Subroutine (VUMAT Subroutine)" training package helps Abaqus users to prepare complex UMAT and VUMAT subroutines. This training package is suitable for those who are familiar with subroutine or want to learn UMAT/VUMAT subroutine Professionally. Equations for computational plasticity based on kinematic stiffness are also discussed. In addition, metal damage has been implemented based on Johnson Cook's model. Watch Demo
Advanced Finite Element Analysis of Off-Axis Tunnel Cracking Laminates
An Efficient Stiffness Degradation Composites Model with Arbitrary Cracks | An Abaqus Simulation
Composite simulation for experts-Part-1
Abaqus for Civil Engineering Part-1
ABAQUS course for beginners | FEM simulation tutorial
Bio-Mechanical Abaqus simulation Full package
This video tutorial package offers a comprehensive guide to biomechanical simulations using Abaqus, covering a range of applications from dental to orthopedic and cardiovascular analyses. The workshops delve into finite element method (FEM) simulations, exploring static loading on human teeth, crack growth in bones under bending, bone drilling, and the behavior of titanium foam implants. Each tutorial emphasizes the importance of precise modeling and meshing techniques, utilizing dynamic explicit procedures, Johnson-Cook material models, and various contact and boundary conditions to simulate realistic biomechanical behaviors. Additionally, the package includes fluid-structure interaction (FSI) simulations for blood flow within coronary vessels, addressing both Newtonian and non-Newtonian models, and demonstrates the integration of computational fluid dynamics (CFD) with structural analysis for enhanced accuracy. The lessons complement the workshops by introducing fundamental FEM concepts, solver selection, explicit analysis considerations, and damage modeling, ensuring users gain a solid understanding of both theoretical and practical aspects of biomechanical simulations in Abaqus.
UMAT Subroutine (VUMAT Subroutine) introduction
This package is usable when the material model is not available in ABAQUS software. If you follow this tutorial package, including standard and explicit solver, you will have the ability to write, debug and verify your subroutine based on customized material to use this in complex structures. These lectures are an introduction to write advanced UMAT and VUMAT subroutines in hyperelastic Martials, Composites and Metal and so on.
Watch Demo
Composite Fatigue Simulation with UMAT Subroutine in ABAQUS (unidirectional)
💿Abaqus for Beginners (Abaqus for Civil Engineering)
Additive Manufacturing or 3D Printing Abaqus simulation
ABAQUS course for beginners | FEM simulation tutorial
Abaqus Kelvin Voigt Model (Viscoelastic) Simulation Using UMAT and VUMAT Subroutines
This research presents a precise three-dimensional mechanical response of viscoelastic materials using Abaqus kelvin voigt viscoelastic model. We performed this kelvin voigt model Abaqus simulation using both UMAT and VUMAT subroutines for standard and explicit solvers.
The behavior of viscoelastic materials is a state between the behavior of a liquid and a solid. In other words, they behave both like liquids and solids. That is to say, there are many natural and synthetic materials that are classified as viscoelastic materials; From the biological structures of the body such as skin, cartilage and tissue to concrete, foams, rubbers, and synthetic polymers. Due to these unique properties, viscoelastic materials have many applications.
In this regard, the primary goals of this study include the development and implementation of an accurate three-dimensional Abaqus kelvin voigt viscoelastic model, and the integration of viscoelastic properties into the analysis, which can improve the prediction of viscoelastic materials response under different boundary and loading conditions.
This tutorial, by customizing the UMAT and VUMAT subroutines to simulate flexible samples behavior, contributes to the advancement of viscoelastic materials design and analysis.
Analysis of Plain and Reinforced Concrete Structures with ABAQUS | Validation with Experiments
This comprehensive package offers four different workshops focused on the analysis of plain and fiber-reinforced concrete structures using ABAQUS. Designed for professionals, researchers, and students, it provides hands-on learning in modeling, simulating, and validating concrete structures under various conditions. Each workshop dives into specific aspects of concrete behavior, from flexural to compressive strength, incorporating the latest sustainable practices through the use of recycled materials. The package ensures mastery of ABAQUS, offering practical insights and a cost-effective path to advanced concrete analysis and safer, more durable infrastructure design.
Note: Only the first workshop has video.
Stress-strain characteristic of SFRC using recycled fibres | An Abaqus Simulation
This training utilizes Abaqus software to simulate and analyze the stress-strain characteristics of Steel Fiber Reinforced Concrete (SFRC) using recycled fibers. The importance of this work lies in its contribution to sustainable construction practices by validating the effectiveness of recycled steel fibers in enhancing concrete's mechanical properties. Through advanced finite element analysis (FEA), the project addresses challenges in accurately modeling SFRC's post-cracking behavior, ensuring that the simulations are aligned with experimental data for reliable results. Abaqus' capabilities in nonlinear material modeling, stress-strain simulation, and principal stress analysis significantly improve the accuracy and reliability of the research, making it a valuable tool for both academia and industry.
Nonlinear Analysis of RC Columns Using ABAQUS | Validation with Experimental Data
Reinforced Concrete (RC) columns are critical components in civil engineering, essential for the stability of buildings, bridges, and infrastructure during seismic events. This study leverages ABAQUS, a powerful finite element analysis (FEA) software, to simulate the seismic performance of RC columns. By modeling columns in 3D and using ABAQUS's advanced tools, we replicate experimental conditions to analyze their behavior under seismic loads. Numerical simulations offer the advantage of exploring various scenarios quickly and cost-effectively, while also allowing for extensive parametric studies. The study details how ABAQUS models both concrete and steel reinforcement, accounts for interaction effects, and applies appropriate loading and boundary conditions. The simulations provide valuable insights into failure modes, load-displacement responses, and crack patterns, offering a comprehensive understanding of RC column performance in seismic scenarios.
Analysis of Steel-Fiber Reinforced Concrete (SFRC) Beams with Abaqus
Machine Learning for Composite Materials with Abaqus
This tutorial package delves into an advanced inverse modeling approach for predicting carbon fiber properties in composite materials using a machine learning (ML) technique. Specifically, it covers the use of Gaussian Process Regression (GPR) to build a surrogate model for accurate predictions of fiber properties based on data from unidirectional (UD) lamina. By leveraging Finite Element (FE) homogenization, synthetic data is generated for training the GPR model, accounting for variations in fiber, matrix properties, and volume fractions. This framework’s efficiency and accuracy are validated using real-world data, highlighting its potential as a computational alternative to traditional experimental methods. The package includes detailed explanations, case studies, and practical exercises, equipping users with hands-on experience in applying this ML-based approach to composite material analysis.
Computational Predictions for Predicting the Performance of Structure
This package focuses on developing and applying predictive models for the structural analysis of steel and concrete components subjected to fire and subsequent earthquake loading. To accurately simulate the complex behavior of these structures, finite element analysis (FEA) using ABAQUS is employed. The Taguchi method optimizes the number of samples needed for FE analysis, and this method is used with SPSS after explanation its concept. However, due to the computational demands of FEA, various machine learning techniques, including regression models, Gene Expression Programming (GEP), Adaptive Network-Based Fuzzy Inference Systems (ANFIS), and ensemble methods, are explored as surrogate models. These models are trained on large datasets of FEA results to predict structural responses efficiently. The performance of these models is evaluated using statistical metrics such as RMSE, NMSE, and coefficient of determination.
Damage Prediction in Reinforced Concrete Tunnels under Internal Water Pressure
This tutorial package equips you with the knowledge and tools to simulate the behavior of reinforced concrete tunnels (RCTs) subjected to internal water pressure. It combines the power of finite element (FE) modeling with artificial intelligence (AI) for efficient and accurate analysis. The Taguchi method optimizes the number of samples needed for FE analysis, and this method is used with SPSS after explanation its concept.
By leveraging Artificial Intelligence (AI) techniques such as regression, GEP, ML, DL, hybrid, and ensemble models, we significantly reduce computational costs and time while achieving high accuracy in predicting structural responses and optimizing designs.
Computational Modeling of Steel Plate Shear Wall (SPSW) Behavior
This course equips engineers with the tools to design and analyze Steel Plate Shear Wall (SPSW) and Reinforced Concrete Shear Walls (RCSW) subjected to explosive loads. Traditional Finite Element (FE) simulation is time-consuming and requires numerous samples for accurate results. This package offers a more efficient approach using Artificial Intelligence (AI) models trained on FEA data. You'll learn to develop FE models of SPSW and RCSW in ABAQUS software, considering material properties, interactions, and boundary conditions. The Taguchi method optimizes the number of samples needed for FE analysis, and this method is used with SPSS after explanation its concept.
We then delve into AI modeling using MATLAB. Explore various methods like regression, Machine Learning (ML), Deep Learning (DL), and ensemble models to predict the behavior of SPSW and RCSW under blast loads. Statistical analysis helps compare model accuracy. By combining FE analysis with AI models, you'll gain a powerful tool for designing blast-resistant structures while saving time and resources.
In this package, the dynamic behavior of a developed bypass viscous damper is thoroughly evaluated as an advanced solution for earthquake damping. This innovative seismic damping device features a flexible, high-pressure hose that serves as an external orifice, functioning as a thermal compensator to reduce viscous heating during dynamic events. By adjusting the hose’s dimensions, the damper’s performance can be fine-tuned to provide optimal damping properties. Comprehensive simulations using CFD models in ABAQUS and structural analysis in SAP2000 validate the damper’s effectiveness. The package also offers a simplified design procedure for integrating these dampers into structures, demonstrated through an 8-story hospital case study, where the dampers significantly reduce structural demands and enhance the performance of nonstructural elements during seismic events.
Abaqus basic tutorials on concrete beams and columns
Welcome to the “Abaqus Basic Tutorials on Concrete Members,” a comprehensive course tailored for civil and structural engineers seeking to master finite element modeling (FEM) of concrete structures. This tutorial covers key concepts such as plain concrete beam and column modeling, reinforced concrete members, and fiber-reinforced polymer (FRP) composites. The course guides learners through the application of boundary conditions, material properties, and various loading conditions in Abaqus. Key topics include plain concrete beam and column modeling, reinforcement modeling with steel bars and stirrups, and fiber-reinforced polymer (FRP) reinforcement techniques. Participants will also explore comparing simulation results with experimental data, as well as interpreting critical outcomes such as stress distribution and failure modes. Through hands-on workshops, learners will simulate structural behaviors under axial, lateral, and compression loads, ensuring a practical understanding of FEM for concrete members. By the end of this course, participants will be proficient in using Abaqus to model and analyze concrete structures, reinforced elements, and advanced composites, providing them with a strong foundation for structural analysis and design.
An Efficient Stiffness Degradation Composites Model with Arbitrary Cracks | An Abaqus Simulation
Pipe Soil Interaction in Abaqus
Pipe Soil Interaction refers to how buried pipelines and surrounding soil respond to loads and dynamic events, crucial for assessing the stability of pipelines used for water, gas, and oil distribution. This tutorial package includes six workshops that use Abaqus to simulate various soil-pipe scenarios. The tutorials cover the long-term load capacity of pipe piles under axial loads, and multiple simulations of coupled Eulerian-Lagrangian (CEL) explosions near or inside steel pipelines buried in soil. These simulations employ advanced material models like the Johnson-Cook plasticity for steel and Mohr-Coulomb plasticity for soil, along with the JWL equation for TNT explosions.
Workshops focus on both external and internal explosions, exploring how blast waves affect pipeline integrity and soil deformation. The tutorials emphasize critical aspects like stress, strain, and damage mechanics, offering detailed insights into pipeline behavior under extreme conditions. These simulations help engineers analyze blast loads and optimize the design of buried structures to withstand destructive forces.
Brittle materials, such as ceramics, glass, and concrete, break or fracture easily under stress without extensive deformation. Unlike ductile materials, brittle materials snap suddenly, lacking flexibility to rearrange their atomic structure under strain. These materials have low tensile strength but strong compressive resistance, which makes them vulnerable to cracking when stretched or pulled.
Understanding brittle material damage is crucial in safety-critical fields like civil engineering, aerospace, and manufacturing, where unexpected fractures can lead to catastrophic failures. Simulations help engineers predict when and how brittle materials may break, guiding safer design choices. Abaqus, a popular software for these simulations, offers methods like the Johnson-Holmquist (JH) model, XFEM, and energy-based approaches, each suited to different types of loading conditions.
For dynamic, high-strain applications like impacts, the JH model is effective, particularly in Abaqus/Explicit with specific damage parameters. For general crack modeling, XFEM is versatile, allowing cracks to form naturally without predefined paths. The energy-based method is useful for slow-loading scenarios, defining an energy threshold for fracture initiation. Each method requires careful input of material properties, mesh refinement, and load conditions to reveal potential failure points and improve material performance in real applications.
Stress-strain characteristic of SFRC using recycled fibres | An Abaqus Simulation
This training utilizes Abaqus software to simulate and analyze the stress-strain characteristics of Steel Fiber Reinforced Concrete (SFRC) using recycled fibers. The importance of this work lies in its contribution to sustainable construction practices by validating the effectiveness of recycled steel fibers in enhancing concrete's mechanical properties. Through advanced finite element analysis (FEA), the project addresses challenges in accurately modeling SFRC's post-cracking behavior, ensuring that the simulations are aligned with experimental data for reliable results. Abaqus' capabilities in nonlinear material modeling, stress-strain simulation, and principal stress analysis significantly improve the accuracy and reliability of the research, making it a valuable tool for both academia and industry.
Nonlinear Analysis of RC Columns Using ABAQUS | Validation with Experimental Data
Reinforced Concrete (RC) columns are critical components in civil engineering, essential for the stability of buildings, bridges, and infrastructure during seismic events. This study leverages ABAQUS, a powerful finite element analysis (FEA) software, to simulate the seismic performance of RC columns. By modeling columns in 3D and using ABAQUS's advanced tools, we replicate experimental conditions to analyze their behavior under seismic loads. Numerical simulations offer the advantage of exploring various scenarios quickly and cost-effectively, while also allowing for extensive parametric studies. The study details how ABAQUS models both concrete and steel reinforcement, accounts for interaction effects, and applies appropriate loading and boundary conditions. The simulations provide valuable insights into failure modes, load-displacement responses, and crack patterns, offering a comprehensive understanding of RC column performance in seismic scenarios.
Analysis of Steel-Fiber Reinforced Concrete (SFRC) Beams with Abaqus
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Here in CAE assistant, Our team of experts works on advanced engineering courses for example Abaqus course, focusing mostly on solid mechanics engineering. We provide simulation tutorials for “Composite Analysis“, “shape-memory alloys”, “3D printing manufacturing process” & other topics. We aim to produce contents that cover advanced levels of each topic rather than focusing on general and elementary courses that can be easily found on the internet & YouTube. Packages also include sample codes to apply advanced theories in the analysis software.
The finite element method (FEM) approach can be used to solve problems in a variety of engineering and mathematical physics fields, such as structural analysis, heat transfer, fluid flow, mass transport, and electromagnetic potential. It is quite impossible to find analytical mathematical solutions to model the behavior of physical systems with complex geometries, loadings, and material properties and these differential equations typically cannot be solved because of the complex circumstances of the problem. FEM is a comprehensive tool to solve many problems and boost innovations in engineering. The main advanced engineering course that we currently cover is FEM in various software like Abaqus, Comsol and Ansys.
What is Abaqus CAE?
Abaqus CAE is used for pre-processing (modeling and analysis of mechanical parts and assemblies) as well as viewing the results of finite element analysis. The automobile, aerospace, and industrial products industries use Abaqus because of the software’s extensive material modeling capabilities and adaptability (for example, users can design their own material models so that novel materials could likewise be simulated in Abaqus), the product is popular among non-academic and research institutes in engineering as well. Abaqus CAE is the perfect software for production-level simulations when various fields need to be coupled, because it offers a good selection of multi-physics features, including coupled acoustic-structural, piezoelectric, and structural-pore capabilities.
Abaqus CAE allows for the swift and effective creation, modification, monitoring, diagnosis, and visualization of complex Abaqus analyses. Its user-friendly interface seamlessly combines modeling, analysis, job management, and results visualization into a coherent, easy-to-navigate environment. This setup is designed to be straightforward for beginners while remaining highly efficient for seasoned users. Abaqus CAE supports well-known interactive Computer-aided Engineering concepts, including feature-based and parametric modeling, interactive and scripted operations, and customization of the graphical user interface.
You can find the best training courses for ABAQUS software on CAEassistant.com; as well as courses from the primary and step-by-step training of each Abaqus module to the implementation of the most complex theories in this software fore example Abaqus fracture.
What is our innovation in CAEassistant.com?
The CAE assistant community is rapidly increasing its coding speed by using basic codes of the main and essential theories of solid mechanics and their video tutorials, leading to accelerated industrial and scientific development.
Want to join us?
Are you a solid mechanics expert? Do you have the ability to provide advanced engineering courses, especially Abaqus training courses?
We can help you publish your scientific research so that researchers and innovators can benefit from the methods and results. You can create a video course as an educational package with us on the CEAassistant.com website. Join us and share your knowledge with the world.
CAE assistant aims to provide advanced engineering courses, focusing on specific topics rather than general and elementary topics, which is why our services stand unique in the industry, differing our products from websites such as Udemy and Coursera.
In today’s academic world, knowledge can be spread at a remarkable speed. But in the cases raised in scientific articles, it’s rather impossible to find step-by-step training for implementing a theory-based code. More emphasis is placed on the results of implementing a theory on a problem, which is analyzed and discussed.
Often in industries, there is no need for complex models presented in ISI articles, and the problem can be solved with simple coding based on a theory, bringing us one step closer to optimal production. CAE assistant will answer this demand using advanced tutoring methods.
What you will find in the training packages of the CAE assistant website is briefly presented as follows:
“here, you will find step by step guidance on how to write and apply a code based on a scientific theory and in a simple example.”
Implementing this code for your problem, be it an academic or an industrial problem, will be up to you. However, these tutorials are designed to accelerate and simplify your progress.
You can easily publish the codes you have written in the past and make them available for other users to purchase and apply on their projects while granting your patent rights. In addition, the platform will allow you to enhance your knowledge and expand your academic and industrial connections as well.
Whether you’re a seasoned Abaqus user or just starting out, our comprehensive blog articles and informative posts are packed with valuable insights and practical tips to elevate your Abaqus simulation skills. Delve into our wealth of knowledge and discover how to optimize your Abaqus workflow, enhance your computational efficiency, and gain deeper understanding of complex engineering scenarios. Whether you’re looking for tips on pre-processing, contact modeling, dynamic analysis, or post-processing techniques, our blog is your one-stop resource for mastering Abaqus simulation and achieving superior results.
Explore our comprehensive Abaqus tutorial page, featuring free PDF guides and detailed videos for all skill levels. Discover both free and premium packages, along with essential information to master Abaqus efficiently. Start your journey with our Abaqus tutorial now!
Discover everything you need to know about the Abaqus Student Edition in our detailed blog post. From download instructions and installation steps to understanding its limitations and new features, our comprehensive guide ensures a smooth start with Abaqus for students.
Dive into our comprehensive blog on the Finite Element Method (FEM) to master the basics and beyond. From the history and essential steps to real-world applications and software tools, this guide covers everything you need to get started with FEM and FEA analysis.
Discover how to accelerate your Abaqus quasi-static analysis with our in-depth blog. Learn about increasing load rates, mass scaling, and practical examples like the Door Beam Intrusion Test. Optimize your simulations efficiently and overcome limitations with expert tips and techniques.
Explore our trio of essential articles on Abaqus elements and mesh to enhance your simulation accuracy. Delve into the causes and solutions for hourglassing, troubleshoot Abaqus common element errors, and the best guide to Abaqus mesh the only one you need. Optimize your Abaqus analyses with these expert insights.
Unlock the full potential of your Abaqus simulations with our insightful articles on Abaqus interactions. Learn the differences and applications of general contact versus surface-to-surface contact, discover how to stabilize unstable problems automatically, and master modeling springs with varying stiffness in compression and tension. Enhance your understanding and improve your results with these essential guides.
Explore the transformative role of AI in mechanical engineering with our comprehensive article. From understanding AI fundamentals to its applications in CAD, CFD, and FEA, and emerging technologies like digital twins and quantum computing, we cover it all. Equip yourself with the knowledge to harness AI for innovative solutions and future advancements in the field.
Discover the power of Comsol Multiphysics with our detailed article, covering its advantages, numerical methods, and comprehensive simulation workflow. Learn about its history, various modules, and how it stacks up against ANSYS and Abaqus. Explore the impactful applications of Comsol in industry to enhance your engineering simulations.
Enhance your Abaqus simulations with our in-depth articles on Shell vs. Membrane elements and Concrete Damage Plasticity (CDP). Learn about the differences between membrane, shell, and plate elements to choose the right one for your project, and dive into CDP analysis and simulations to accurately model concrete behavior under various conditions.
Unlock advanced simulation techniques in Abaqus with our comprehensive articles on Ductile Damage, the Abaqus Johnson-Cook model, and Abaqus Plasticity. Explore ductile damage mechanics, continuum damage models, and writing VUMAT subroutines. Delve into the Johnson-Cook plasticity and damage models, including hardening and strain rate dependence. Master material plasticity with detailed modeling insights to enhance your Abaqus simulations.
Explore advanced composite damage and fatigue analysis techniques with our insightful articles. Learn about unidirectional composite materials damage, their damage mechanisms, and failure criteria, as well as how to simulate these damages in Abaqus. Dive into the fatigue analysis of short fiber composite fatigue analysis, understanding fatigue damage, behavior, and simulation using the UMAT subroutine. Enhance your knowledge and simulation accuracy with these comprehensive guides.
Discover the fundamentals of cohesive elements in Abaqus with our comprehensive article. Learn about cohesive element modeling, applications, and cohesive zone models, and explore the cohesive elements library. Understand how to model cohesive zones, define initial geometry, and distinguish between element- and surface-based cohesive behavior to enhance your simulation accuracy in Abaqus.
Enhance your understanding of energy concepts in Abaqus with our detailed article on specific internal energy and dissipated inelastic specific energy. Learn about dissipated and inelastic energies, energy balance, and how these concepts apply in VUMAT subroutines. Gain insights into updating energy measures within VUMAT to improve your simulation accuracy.
Understand the application of velocities in Abaqus with our insightful article on Angular Velocity vs. Linear Velocity. Learn the definitions, formulas, and real-life examples of linear, angular, and tangential velocities. Explore the relationships and conversions between them, and discover how to apply these concepts in Abaqus simulations to improve motion and kinematics modeling.
Explore the distinctions between linear and nonlinear analysis in Abaqus with our comprehensive article. Understand the properties and sources of nonlinearity in problems, and delve into numerical techniques like the Newton-Raphson and Quasi-Newton methods for solving nonlinear problems. Enhance your simulation accuracy by mastering these critical concepts in Abaqus.
Learn how to save and manage graphical settings in Abaqus/CAE with our detailed guide. Discover how to display and render beam profiles, understand the concept of beam profiles, and store viewing positions and directions of your model using the Abaqus Views Toolbar for improved visualization and efficiency in your simulations.
Get started with UAMP Abaqus (VUAMP) subroutines using our beginner’s guide. Understand load amplitude definitions and their role in engineering analysis, explore different available amplitudes in Abaqus, and learn when to use user-defined amplitudes. Dive into load sensor implementation and the structures of UAMP and VUAMP subroutines, including their differences, to enhance your simulation capabilities in Abaqus.
Discover the concept of follower forces in Abaqus with our detailed guide. Learn about the “Follow nodal rotation” option, when to use follower forces, and important limitations and considerations. Gain practical insights into applying the “Follow nodal rotation” option in Abaqus to enhance the accuracy and realism of your simulations.
Explore five lucrative ways to earn money with FEA projects in our comprehensive guide. Learn about career opportunities, salary expectations, and the essential requirements for an FEA engineer. Discover how combining mechanical engineering with AI can open new earning opportunities, and find practical tips for receiving projects, job searching, uploading resumes, sharing FEA videos on YouTube, and monetizing past projects. [/expander_maker]
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