Using imported detailed PCB designs and IC thermal properties to speed up thermal analysis Benefits Save time and effort by using imported detailed PCB designs and IC thermal properties for analysis; Quickly import detailed PCB data into Simcenter FLOEFD; Improve analysis accuracy with more detailed thermal modeling of electronics. EDA Bridge Simcenter FLOEFD's EDA Bridge module provides capabilities for detailed import of printed circuit boards (PCBs) into the mechanical computer-aided design (MCAD) tool of your choice in preparation for thermal analysis. Historically, the best way to access PCB data was to use Intermediate Data Format (IDF) file pairs, which present several problems, especially regarding the geometry of the copper on the PCB. The Simcenter FLOEFD EDA Bridge allows detailed import of PCB thermal properties of materials and integrated circuits (IC) into Simcenter FLOEFD for thermal analysis on its own or as part of a larger system-level assembly. PCB Import File Formats Simcenter FLOEFD EDA Bridge can use four file formats for import: IDF CC and CCE (native file format for Xpedition™ software and PADS™ software from Siemens Digital Industries Software) ODB++ (neutral file format for PCB manufacturing) IPC2581B (IPC Digital Product Model neutral file format) The benefit of using CCE, ODB++ or IPC2581B is the PCB stackup and copper geometry can be read and used to create 3D geometry. This is particularly useful when thermal considerations, such as vertical connection thermal access (vias) or copper leaks, have been designed into the board. PCB Modeling Levels A PCB can be modeled in four ways using Simcenter FLOEFD: compact, layered, explicit or using the new Smart PCB. The most appropriate approach depends on the required granularity of the thermal simulation, evaluated against the time available for analysis in a design and the constraints of the EDA data available at the design stage. More information about each approach: 1. Compact: An orthotropic material property is created to account for in-plane and direct-plane thermal conductivities based on the copper content within the board. 2. Layered (detailed): Each layer has its own material property based on the copper coating of the layer, including dielectric layers with vias. PCB material thermal conductivity modeling options for compact and layered approaches: Analytics: A well-known legacy approach where effective properties are determined based on the volume average of copper and dielectric of individual layers of the board or the entire board. Empirical: a unique and patented approach where effective properties are based on a percentage correlation of coverage with the explicit representation of copper. Several validation examples have shown that results based on empirical effective thermal conductivities more accurately predict component temperatures than the analytical method. Empirical effective in-plane conductivity 3. Explicit: Explicit copper modeling can be performed at more mature design stages when fully routed board information is available. You can import CCE, ODB++ or IPC-2581B files that contain the board netlist and copper layout, and then all the appropriate 3D geometry will be created. Alternatively, you can adopt the subset approach to model individual networks for Joule Heating analysis using the explicit network approach: Specific networks can be selected and modeled as explicit. The software will then create 3D geometry to resemble the entire network, including vias, in Simcenter FLOEFD. 4. Smart PCB: a new approach where the copper and dielectric within a routed board are represented using a lattice assembly. For a fully routed board, this is a very computationally efficient method for faster solution time. The fidelity of the representation can be adjusted by switching between fine, which guarantees two network assemblies in the width of the smallest stroke, or medium, which allows full control to coarsen or refine the network assembly. SmartPCB is a unique approach to PCB ECAD data processing that enables thermal, thermoelectric and structural simulation. The number of cells in the CFD mesh and the time to solve SmartPCB are much smaller than a fully explicit approach, but maintain the same amount of detail. To understand the Fine Resolution approach and, more generally, SmartPCB creation, consider each layer represented by an equivalent image of the copper distribution. The maximum resolution that can be achieved is 1 pixel, on the order of 10 microns. Cells or blocks in larger areas of Copper or FR4 are merged to reduce the number of nodes in the network representation. Thermal Territories – Localized PCB Modeling Fidelity Improved localized modeling fidelity definition supports faster, more computationally efficient PCB thermal analysis. It eliminates the need to explicitly model the entire PCB, without sacrificing accuracy where it is needed most. To accurately account for the influences of layer complexity and copper trace where they are most critical, users can select an area under a critical component (a standard thermal territory) or define an arbitrarily defined rectangular area anywhere on the PCB to cover the properties of the board under a group of components (autonomous thermal territory). Multiple thermal territories can be defined on a single board and defined as compact, layered (verbose), or explicit type in conjunction with how the board's overall thermal modeling level has been defined. IC Modeling IC components or packages can be thermally represented in several ways to simulate electronics cooling. Within EDA Bridge you can configure the following models during import. If component heights are not defined in the electronic design automation (EDA) tool, a default can be specified in the EDA Bridge: Simple: use block representations of the components. The size is based on the contour of the assembly or placement with the defined material properties. Two resistors: use Joint Electron Device Engineering Council (JEDEC) thermal resistances θJB and θJC. DELPHI Multi-Resistor: Advanced thermal resistance network compliant with JEDEC guidelines with additional network nodes imported as a network assembly. Detailed models represent all 3D materials and geometry of a component. Note: Detailed models based on clean 3D CAD geometry can be generated using the Simcenter FLOEFD Package Creator application in minutes. PDML Import PDML was originally a Simcenter Flotherm™ software format often used by vendors to provide users with an IC package simulation model. This IC package definition in *.pdml format can be imported into Simcenter FLOEFD and contains information about the geometry, energy load, material properties or the thermal compact model definition and radiative properties of the surface. Electronic component filtering ICs, resistors, and other components can be filtered based on one or more criteria. This is designed to allow users to remove thermally insignificant components from the analysis to speed up computational time. The mounting holes can also be filtered. Users can filter parts based on: footprint dimension, height, power, power density, or reference designator. Import power list A CSV file containing the datum designator and a number can be used to apply multiple boundary conditions in one operation, rather than part by part. This feature is useful when many components are present. A CSV file can be exported for further use or editing if necessary. Possible imported boundary conditions range from the type and modeling properties of the IC to its dissipated power. PCB electrothermal co-simulation Using the Smart PCB generated in EDA Bridge and transferred to Simcenter Flotherm to model a board as a network assembly, users can set up a co-simulation with HyperLynx™ PI DC drop analysis software. This co-simulation more accurately represents the power dissipation of the board's copper trace by modeling changes in electrical resistance versus temperature. It is configured in the PCB property sheet and the user selects the appropriate networks to model. At each iteration in the co-simulation, the temperature results are passed to a DC drop analysis to better model the changes in copper's electrical resistance with temperature and then an updated joule heating power map of the grid. Electrical PCB is fed into system-level thermal analysis for accuracy and temperature prediction and so on. It is also possible to control the frequency with which thermal information is passed between the two tools, defining the periodicity of the co-simulation. Overall, this electrothermal modeling solution allows engineers to better predict temperature influences more accurately and then identify areas of excessive voltage drop and high current density that can cause malfunctions. FloEFD: An Integrated Thermal Analysis Solution With Simcenter FloEFD , engineers can perform thermal analyzes directly in the CAD environment, leveraging data imported by EDA Bridge. This integration eliminates the need for additional simulation software, simplifying the design workflow. Interface FloEFD Combining FloEFD with the EDA Bridge module enables more accurate and detailed thermal analysis, optimizing PCB design for better performance and reliability. FloEFD's electrothermal co-simulation provides in-depth insight into thermal and electrical interactions, resulting in more robust and efficient designs. Schedule a meeting with the experts at CAEXPERTS today and take your PCB thermal analysis to the next level! Save time and effort with detailed import of PCB designs and IC thermal properties into Simcenter FLOEFD. Enjoy the benefits of faster, more accurate thermal modeling, ensuring more efficient electronics designs. Don't miss the opportunity to improve your thermal analysis - schedule your meeting now with CAEXPERTS!

Siemens is expanding the automation capabilities and simulation intelligence available in its Simcenter STAR-CCM+ 2310 software by introducing the concept of Stages. But what are these stages? You've heard of life stages, theater stages, Tour de France stages... but what about stages in a CFD simulation to combat low productivity, configuration errors, inconsistency!? Well, when you think about the concept, they are quite similar. Stages – manage multiple physics configurations in a single simulation Stages in Simcenter STAR-CCM+ allow you to have multiple physical configurations in a single simulation. Now you can prepare different objects in the simulation tree and these objects can have different settings at each stage. Objects that are not staged maintain the same values ​​at all stages. With stages, we are unlocking more end-to-end automated workflows and further reducing the need for Java macros. Harness the power of Vehicle Thermal Management Internships To make things a little more concrete, look at an example of what you can do with internships. This video sheds more light on how internships work and what they can do. In the example shown, sections of the configuration of a thermal immersion for a vehicle thermal management case are analyzed. When a car stops after running at a constant speed, the solid parts under the hood follow different cooling/heating patterns. Now you can simulate this scenario in a simulation file without using Java macros or other tricks. For example, in one stage you can simulate the solids as steady state and provide a value for the tangential ground velocity, in the other stage you can simulate the solids as implicitly unstable and set the tangential ground velocity to fixed. Thanks to the easy workflow, stages allow you to quickly automate sophisticated simulation steps. Create as many stages as you need When you create the first stage, help arrives: the stage tree opens automatically (here all stage objects will be visible) and a dedicated toolbar appears in the upper right corner of the simulation tree window. Quick and easy, just press the flag icon next to the object to mount it. The objects that can be staged are, for example: different physical models, conditions, but also other configurations. Depending on the stage, you can have different solver configurations. Pro tip: Use the stage tree and toolbar to quickly spot differences between stages. In the stage tree, use the 2 different views; one showing just the staged objects and the other showing where they are in the tree. Use this to check your final configuration for each stage. Combine stages simply and efficiently Simulation steps and operations enable fast and consistent management of complicated simulation sequences. You can now manage complete stages of simulation configurations and orchestrate their execution without manual intervention or Java macros, and by leveraging the simulation guide and simulation models to share these workflows with your colleagues, in a single simulation model file. Steps in Action – 3D Battery Cell Design Another great example that leverages these automation abilities is the recently released 3D battery cell design feature. The model uses a powerful combination of simulation stages and operations to model complete battery operating cycles. For example, when a battery reaches a certain voltage during charging, a constant current will no longer increase the state of charge (SOC), so the charger will switch to a constant voltage strategy to achieve a 100% SOC. The stages now enable a seamless setup for constant current to constant voltage simulation, automatically switching the current threshold condition from current to potential based on a criteria and therefore capturing this load cycle with ease. Maximize your CFD simulations with Stages in Simcenter STAR-CCM+ 2310 . Easily manage multiple physical configurations in a single simulation, reducing dependency on Java macros. Quickly create and combine stages to streamline your workflows. Schedule a meeting with CAEXPERTS now and transform your simulations! Related posts Simcenter STAR-CCM+ 2310! What's new? The Simcenter STAR-CCM+ 2310 brings an impressive advance in computational simulation, excelling in battery modeling, thermal and aerovibroacoustic simulations, as well as automation and GPU efficiency. Facilitated by Simcenter Cloud HPC, it promotes innovation and product development, with support from CAEXPERTS.

How is computer simulation playing a crucial role in transforming and optimizing projects in the energy cogeneration and bioenergy sector? CAEXPERTS, with its team of experienced professionals, listed the areas of electrical energy generation from biomass, from biogas production to its burning and highlighted how computer simulation is an essential tool in this innovative process. From raw materials to electricity supply, simulation is transforming the efficiency and sustainability of this renewable source. Biomass Plant Modeling Simulation plays a central role in modeling biomass plants. By creating detailed models, we can optimize biomass conversion processes into biofuels, ensuring operational efficiency and maximizing energy production from renewable sources. Combustion Process Modeling The simulation allows detailed modeling of biomass combustion processes. This includes the analysis of the gas mixture, temperature and thermal efficiency, contributing to optimizing the burning of biomass in electrical generation systems. Conversion Efficiency in Biogenerators By simulating the operation of biogenerators, the efficiency of converting biomass to electricity can be improved. Computational models consider variables such as feeding rate, type of biomass and operating conditions, resulting in more efficient systems. Integration of Biofuels in Industrial Processes For projects that aim to integrate biofuels into industrial processes, simulation is vital in adapting existing infrastructure. Detailed models enable the smooth transition to more sustainable energy sources, ensuring efficiency and compliance with environmental regulations. Optimization of Anaerobic Digesters In projects involving anaerobic digestion for biogas production, simulation is used to optimize the design and operating conditions of the digesters. This results in greater biogas production and more effectively treated waste. Turbine and Generator Optimization The simulation is applied to the optimization of turbines and generators used in biomass plants. This includes analysis of flow, temperature and mechanical performance, ensuring maximum efficiency in converting thermal energy into electricity. Energy Cogeneration Analysis For facilities that adopt cogeneration, simulation is crucial to analyze the simultaneous production of electricity and heat. This makes it possible to design systems that make the most of energy generated from biomass, meeting local needs and reducing waste. Future Challenges and Innovations As electricity generation from biomass continues to evolve, exciting challenges lie ahead, from the variety of biomass to integration with electrical grids. Simulation is an essential ally in overcoming these challenges. In summary, computer simulation emerges as an indispensable tool in the bioenergy revolution, from modeling biomass plants to optimizing combustion processes, biogenerator efficiency and integration of biofuels into industrial processes. CAEXPERTS, with its team of experts, invites you to schedule a meeting to explore how simulation can drive efficiency and sustainability in innovative projects in the energy cogeneration and bioenergy sector. Together, we can face future challenges and shape the future of electricity generation from renewable sources. Schedule your meeting with us today and be part of this sustainable transformation.

Today, we'll embark on a fascinating journey through the Oil and Gas sector, exploring how computer simulation is shaping innovative designs and driving efficiency. From exploration fields to deep-sea operations, simulation is playing a crucial role. 1. Exploration Field Optimization 🌐 Simulation is fundamental in optimizing exploration fields. Advanced models are used to predict reservoir behavior, identifying flow, pressure and temperature patterns. This approach allows for more informed decision-making, maximizing hydrocarbon recovery. 2. Risk Analysis in Offshore Installations 🚢 In offshore projects, safety is a priority. Simulation is applied to assess risks in facilities, considering factors such as wind, waves and underwater structures. This enables the design of robust facilities, reducing the likelihood of incidents and ensuring safe working environments. 3. Optimization of Refining Processes🛢️ In the refining phase, simulation is used to optimize processes. Detailed models help adjust variables such as temperature, pressure and catalysts, seeking energy efficiency, cost reduction and compliance with environmental standards. 4. Predictive Maintenance Planning 🔧 Simulation also plays a crucial role in maintenance planning. Predictive models assess equipment wear over time, allowing for an optimized maintenance schedule. This approach reduces unplanned downtime, increasing operational efficiency. 5. Virtual Training for Operators 💻 Simulation is not just in the design, but also in the training. Virtual environments are created to simulate real-time operations, offering hands-on training to operators. This results in teams that are better prepared to deal with emergency situations and daily routines. 6. Ultra-Deep Water Exploration 🌊 Exploration projects in ultra-deep waters demand extreme precision. Simulation is crucial for modeling extreme conditions, helping to design structures and equipment capable of withstanding extreme pressures and temperatures. 7. Environmental Impact and Sustainability ♻️ Simulation also contributes to environmental assessments. Models allow analysis of the environmental impact of operations, helping to implement sustainable practices and comply with environmental regulations. 🔮 Future Challenges and Innovations in the oil and gas sector: The Oil and Gas sector continues to evolve, facing challenges such as energy transition and sustainability. Simulation will be an essential ally on this journey, providing critical insights for strategic decision-making. 📈Flomaster in Advanced Engineering Projects Simcenter Flomaster is an advanced tool, its ability to simulate pressure surges in pipelines is essential in the oil and gas sector. The example system "Ship to Shore" illustrates the use of a signal generator to simulate a pressure surge caused by the sudden closing of a valve in the Marine Breakable Coupling (MBC). This system models the transport of oil from an onshore terminal to an offshore buoy, a Single Mooring Point (SPM), highlighting the importance of relief of pressure to combat water hammer in pipes. Pressure vs Time in Export, Pressure Relief and Shipping Pumps Explore the power of simulation in the Oil and Gas sector with us! From exploration fields to sustainability, CAEXPERTS offers crucial solutions. Schedule a meeting to boost innovation in your business. Don't waste time, turn challenges into opportunities now! Related posts Development of Basic and Detailed Projects with FLOMASTER Discover how Flomaster can revolutionize the development of basic and detailed engineering projects. This article offers valuable insights into the use of this essential tool in computer simulations, highlighting its unique capabilities and how they can be applied to optimize engineering processes. FORAN: The Revolution in Naval Design Explore the revolution in naval design with FORAN, the advanced tool that is transforming the way engineers and designers create and develop vessels. Immerse yourself in innovative capabilities highlighting the redefinition of standards in the marine industry. From conceptual design to detailed construction, FORAN offers an integrated and efficient solution.

Retrospective 2023 - Top 5 Posts 🚀🔍 Welcome to the second part of our 2023 Retrospective! If you missed the first part, don't worry – click here to explore posts 10 to 6 that marked our year. Now, get ready to dive into the top five articles that were featured in CAEXPERTS. Let's quickly recap the previous posts: 10. Discover how Celera overcame challenges in LED luminaires.🔍 9. Explore Generative Design and perfection inspired by nature.🧩 8. Uncover Siemens Simulation and Digital Thread Workflows.⚙️ 7. Eliminate data migration worries using Solid Edge.🔄 6. Get to know behind the scenes of the CNPEM Sirius Project. Now, let's move on to the TOP 5 posts from the last year, where we cover everything from the revolution in the global energy matrix to the challenges and solutions in the design of transformers and electrical machines. 5. The Role of Green Hydrogen in Reshaping the Sustainable World Energy Matrix 🌍 Embark on an intriguing analysis of the impact of Green Hydrogen on the revolution in the global energy matrix. This article offers a critical and practical point of view, going beyond corporate marketing. Discover new ideas and solutions to energy challenges, revisiting concepts, reviewing foundations and exploring paths to a more sustainable future. By heating up the turbines, dive into how we can transform energy in innovative ways. 4. State of the Art in Electrical Machine Design ⚡ Enter the advanced world of electrical machine design in this exploration led by CAEXPERTS in collaboration with SIEMENS Digital Industries Software. Explore the frontiers of multidisciplinary optimization and multiphysics integration, discovering how digital tools are radically transforming the design of these engines. From analytical calculation to 2D analysis, multiphysics and system approach, learn the deep layers of electrical machine design for complete and efficient understanding. 3. The Digitalization of Engineering can transform the Foundry Industry 🏭 Explore the transformative possibilities of digital engineering in the foundry industry with CAEXPERTS. Discover how the strategic partnership between CAEXPERTS and Siemens Digital Industries Software can boost your company's competitiveness. From advanced part engineering with Simcenter 3D to casting process improvement with STAR-CCM+, dive into tools that will optimize your designs, reduce costs, and speed production. 2. Dramatically reduce cycle time using simulations⏳ Discover how a simulation-driven design approach can be the key to accelerating time to market. CAEXPERTS highlights three reasons why the "stop/start" is slowing down design teams. With an emphasis on saving time, explore how simulations can prevent unforeseen problems, enable accurate root cause analysis, and automate the sharing of design information. Download the e-book to explore the multidisciplinary approach to design and learn how incorporating simulations from the earliest stages of the design process can significantly enhance innovation in electronics design. 1. Why are power transformers so noisy? 🔊 Explore the intriguing world of power transformers and discover why they produce so much noise, known as 'transformer hum'. This post analyzes the basic structure of a three-phase transformer and highlights the influence of magnetostriction, a phenomenon associated with cold-rolled grain-oriented electrical steels. Learn how simulation, especially with Simcenter 3D, can be crucial to understanding and mitigating these effects. Also learn about Lorentz forces and the complexity of transformer joint design. If you are involved in transformer design, this reading offers valuable insights. Now, we invite you to take the next step in your innovation journey. Schedule a meeting with us at CAEXPERTS to explore how advanced engineering and simulation solutions can boost your business in 2024. Let's turn ideas into reality. Together, we will reach new horizons. Schedule your meeting now! 🚀📆

🚀 Review the Best Moments of 2023 Embark with CAEXPERTS on this journey through the 2023 retrospective, remembering the posts that sparked the passion for innovation and technology. Divided into two parts, this retrospective reveals the standout moments that shaped the engineering and simulation landscape. Prepare to be inspired and amazed by the incredible advancements that marked 2023. Let's go to Part 1 of our TOP 10 of 2023! 10. CASE of Success - CELERA: Challenges and Solutions in LED Luminaires💡🚥 Celera surprised us with a super interesting case study, delving into the challenges faced in optimizing high-power LED luminaires. Explore the innovative solutions that have emerged from advanced thermal simulation, including material substitution and the surprising strategy with graphite blankets. This reading is an invitation to unveil behind the scenes of innovation in lighting efficiency using Simcenter FLOEFD. 9. Generative Design - AI-Powered Innovation 🔄🌐 In ninth position, dive into the universe of Generative Design, where algorithms based on artificial intelligence intertwine with CAD and CAE platforms. Discover how Siemens redefines product optimization and scaling, taking inspiration from the perfection of nature's organic forms. An odyssey through innovation driven by artificial intelligence. 8. Simulation and Digital Thread Workflows: Systems Engineering in Action ⚙️🔗 In eighth place, we enter the exciting universe of "Model-Based Systems Engineering" with Siemens' Xcelerator portfolio. Uncover the mysteries behind how Siemens Xcelerator simplifies collaboration between engineers, designers and simulation experts. Simulation workflows become the backbone of efficiency from product conception to operation, a true revolution in modern engineering. 7. Solid Edge - Data Migration 🔄💻 Explore the smooth journey between different CAD tools with Solid Edge. Eliminate data migration worries by adopting this software, which offers two standard ways of migration at no additional cost. From directly opening a wide variety of file formats to advanced batch migration tools, Solid Edge is the guardian of project preservation and continuity engineering. 6. CASE of Success - CNPEM - Sirius Project🌌🔬 We uncover the behind-the-scenes of the Sirius project, a technological success story from CNPEM (National Center for Research in Energy and Materials). This advanced particle accelerator, a global reference in scientific research, used magnetic modeling with Siemens' Simcenter MAGNET software to develop a superbend with permanent magnet technology. This innovation is crucial for electron guidance and synchronous light emission, consolidating CNPEM's commitment to cutting-edge technologies. A fascinating journey through the confines of Brazilian scientific research. We have concluded the first part of this incredible retrospective of the year 2023 for CAEXPERTS. Each post shared was an informative journey, reflecting our commitment to excellence, innovation and advancement in engineering and simulation. The CAEXPERTS team wishes everyone a Happy New Year! 🌟 May this new year bring much prosperity, success and achievements to you. We look forward to continuing our journey together in 2024. Best wishes everyone! 🎉🎆 Improve your engineering in 2024! Schedule a meeting now with CAEXPERTS and discover how we can drive innovation in your projects. Turn challenges into opportunities. Click the button below to schedule your meeting and take the next step towards success. Don't miss the chance to turn your vision into reality!

CAEXPERTS reinforces its commitment to leading digital transformation in the industry, consolidating itself as a reference by offering the most complete range of simulators on the market, based on renowned SIEMENS software. This strategic partnership was recently expanded with the commercial launch of the innovative SIMCENTER CLOUD HPC, marking a significant step in CAEXPERTS' journey to optimize processes and drive efficiency in the industry. The use of this advanced platform by CAEXPERTS engineers not only represents a leap in simulation capabilities, but also redefines performance and effectiveness standards in the industry. Now, it is possible to execute cases in a few minutes that would previously require hours or even days on local high-performance workstations. Strategic Benefits with Cloud HPC: Rapid Delivery of Projects and Consultancies: The agility provided by SIMCENTER CLOUD HPC allows CAEXPERTS to deliver engineering projects and consultancies in significantly reduced deadlines, boosting competitiveness and customer satisfaction. High Complexity Simulation in Real Time: The expanded partnership enables the simulation of increasingly complex products at scales close to reality and in real time, enabling a more comprehensive and need. Agility in Product Development: The ability to quickly simulate changes during the product development process is a crucial differentiator, allowing agile and effective adaptations to market demands. Financial Optimization: The adoption of SIMCENTER CLOUD HPC results in a drastic reduction in investment costs (CAPEX), as it eliminates the need for high-performance local infrastructure, while maintaining a low operating cost. Advanced Data and Information Security: The partnership offers a secure environment for data and information management, ensuring the confidentiality and integrity of critical information. CAEXPERTS recognizes that while cloud computing for HPC is an exciting prospect, many companies face challenges in setting up and managing it. However, with SIEMENS HPC Cloud, these challenges are overcome: Fast Delivery of Projects and Consultancies: The agility provided by SIMCENTER CLOUD HPC allows CAEXPERTS to deliver engineering projects and consultancies in significantly reduced deadlines , boosting competitiveness and customer satisfaction. Instant, Hassle-Free Access: Without complex IT configuration and management requirements, SIEMENS HPC Cloud provides instant access to HPC in the cloud, delivering ease of use and speed. Flexibility and Efficient Collaboration: The ability to move simulations to the cloud and efficiently share results with the team increases flexibility and promotes more effective collaboration. Real-Time Monitoring: Simulation monitoring is simplified and can be carried out through dedicated software, web browsers and mobile devices, providing total control over the processes. Optimization with Integrated Hardware and Software: The integration of software and hardware on the same platform enables the simultaneous execution of multiple simulations and cases, optimizing operational efficiency. Importantly, high-performance companies are more likely to take advantage of cloud computing for HPC, and CAEXPERTS is ready to offer all the support you need in your next project. Enjoy the Future of Simulation with Expert Support from CAEXPERTS! Contact us to explore how to implement SIMCENTER CLOUD HPC in your operation and jumpstart your journey towards simulation excellence. Find out more at: Simcenter Cloud HPC 3 reasons why you should try Cloud HPC CASE STUDY Maritime Advisory DNVA DNV Maritime Advisory leverages on-demand cloud services to accelerate simulations. Using Simcenter to solve urgent problems with CFD in the cloud Company: DNV Maritime Advisory Industry: Marine Location: Oslo, Noruega Software: Simcenter 3D, STAR-CCM+

"Model-Based Systems Engineering" in action Siemens' Xcelerator portfolio is leading the charge in bringing together systems engineers, designers and simulation engineers to confidently conceptualize, develop, manufacture and commission products that meet your design requirements. Let's see how our imaginary classmates Ed and Sam work together to specify and verify a braking system as part of a new vehicle design. It's an all too familiar story – some engineers design a subsystem that does the required work, but are then asked to do the same thing at a lower cost. Now they need to spend time to: Find or recreate your original simulation models and data Review the design and look for cheaper ways to achieve the same performance Run more simulations to check performance Once a solution is found, communicate it to the rest of the team Fortunately for them, Siemens Xcelerator makes it easy to: Ed and Sam use workflow from simulation to performance segmentation, thanks to digital chaining in Teamcenter. MBSE and the digital segment not only save time, effort and money Because Ed is immediately able to locate the analysis work that led to the existing project selection, he can also reuse work already done to review this project. Even better, because everything is connected to the digital thread in Teamcenter, it can instantly evaluate that performance and validate it against requirements for all stakeholders to see. Fully integrated simulation workflow and verification management in action. Now, the project team can spend more time on engineering and less time on logistics and repeated efforts – meaning they can deliver higher quality work and make better-informed decisions. Imagine the added productivity gain if this happened for the entire plethora of systems and subsystems that make up the design of a modern car? Systems thinking brings your organization together It is common practice for systems engineers to work in a systems modeling environment. Mechanical designers are likely using a product lifecycle management (PLM) solution, and your simulation team may have a process simulation and data management (SPDM) solution. Does this make a digital thread? Not exactly. The key to unlocking the potential of the digital segment is for all this work to be done on a common platform. The backbone Siemens Teamcenter manages requirements, systems engineering, CAD (PLM), simulation, physical testing (SPDM) and verification management with complete traceability and visibility for all interested parties. Fundamentally, having all of this in place makes it possible to 'close the loop'. in verifying requirements, maintaining traceability and visibility for all interested parties. Final thoughts There are many examples in history where a lack of systems thinking led to product failure. EHR systems are an interesting example because anyone who has ever been treated by a doctor (and that's pretty much all of us) will instantly recognize the value of a well-designed solution, as well as some of the potential pitfalls. We must continue to embrace emerging and future technologies with a systems thinking mindset and work collaboratively to create products that are not only innovative but also sustainable and efficient. With the help of systems engineering and the expertise of companies like Siemens, we can create a world where technology serves as a force for good, promoting a sustainable and prosperous future for all. Schedule a meeting with us, CAEXPERTS, now and discover how our simulation workflow and digital thread solutions can help advance MBSE in your projects.

Dear CAEXPERTS readers, This Christmas, embark with us on a magical journey, full of innovation, overcoming and the charm of Engineering. In a year marked by unique challenges, even the iconic Santa Claus has had to rethink his approach to ensure the Christmas magic continues to shine. ✨ Modern Challenges at the North Pole With the rise of home working even among elves, Santa Claus faced a revolution in his workshop at the North Pole. Many elves were reluctant to leave the comforts of their elven homes, and who could blame them? But the good old man couldn't rely solely on remote work to ensure that all the gifts reached the good boys and girls (after all, taking care of 7 adult flying reindeer is not an easy task, especially when they insist on participating in virtual meetings! 🦌 ) . Innovation in Gift Delivery The solution came through Siemens, CAEXPERTS' technological partner. Inspired by the versatility of Simcenter Amesim, which transformed traditional reindeer into robotic reindeer using computer-aided engineering, simulating an efficient and agile delivery system. 💻 It's okay that they don't fly yet, but who knows next Christmas? 🚀  Santa Claus and his team decided to innovate in delivering gifts. 🎁 Boston Dynamics robots are getting into the Christmas spirit, pulling sleds with robotic precision. It looks like a real Christmas miracle! 🤖 Engineering: The Magic Behind Christmas Just as the elves adjusted their tools and skills to adapt to modern times, CAEXPERTS stands as a pioneer in the technological transformation of engineering, turning challenges into incredible opportunities. 💡 Our multidisciplinary team of CAE experts not only embraces the latest innovations in simulation and computer-aided engineering, but also leverages them, offering advanced, specific solutions to our clients' technological challenges. We are committed to providing a unique experience, where engineering becomes a journey full of discoveries and extraordinary solutions. 🛠️ Wishes for Innovation and a Bright Christmas This magical Christmas, we wish all CAEXPERTS readers health, happiness and the promise of a future full of innovation. May the light of new ideas continue to shine in each future project, just as it lit the path of Santa's sleigh! 🎅 Merry Christmas and a New Year full of achievements ❗ Sincerely, The CAEXPERTS Team

CAEXPERTS, a specialist in advanced engineering and computer simulation, is revolutionizing the naval industry in partnership with SIEMENS, which acquired FORAN technology. Acquisition of FORAN by Siemens: The Xcelerator Maritime Solution Siemens, a global technology leader, has acquired FORAN technology to create a comprehensive solution for the marine industry. This strategic partnership fills crucial gaps for shipyards around the world, offering everything from increased lifecycle management to more innovative design processes. FORAN is now part of Siemens Xcelerator, establishing itself as the market CAD/CAE/CAM standard for the marine industry. Complete Solution: From Conceptual Design to Production By integrating FORAN with Siemens Xcelerator, the resulting solution covers all aspects of the marine industry, from conceptual design to final production. Rafael de Gongora, Senior Director of Naval Construction at Siemens, highlights that this collaboration offers a unique and complete solution for shipyards, driving innovation and efficiency. “Siemens' Xcelerator marine solution is a winning solution for the market. It is a unique solution capable of offering the only combination required by shipyards. This offers a complete solution for our customers.” Rafael de Gongora – Senior Director of Naval Construction at Siemens Digital Industries Software “The acquisition of FORAN enhances our maritime digital twin by adding prominent capabilities to our integrated ship design and digital thread engineering solution... By adding FORAN's extensive tools to the Xcelerator portfolio and leveraging the team's industry expertise, we will be able to offer commercial and marine shipbuilding customers better control of their ship design and manufacturing process as they transition to Shipyard 4.0.” Tony Hemmelgarn – CEO and president of Siemens Digital Industries Software. No Worries for FORAN Customers Previous FORAN customers can rest assured during this transition as Siemens technology enables the migration of legacy data, ensuring continuity of design, manufacturing and data management. Siemens also offers FORAN customers the opportunity to migrate to the Xcelerator marine solution, providing access to the best software for all their shipbuilding needs. Commitment to a Sustainable Future In addition to offering a complete solution, CAEXPERTS and Siemens are aligned with the industry's sustainability ambitions. The Xcelerator marine solution facilitates the transition to greener practices, enabling rapid prototyping, waste elimination and more sustainable ship design, contributing to decarbonization and a greener future. Main Industries of the FORAN System: Merchant, Passenger, Ro-ro: FORAN has been successfully used to design ro-ros, passenger ships, bulk carriers, chemical ships, container ships, cement carriers, oil tankers etc. Military: FORAN meets the most demanding requirements of military shipbuilding, offering control over configuration, analysis of design options, interface with PLM tools, advanced form definition capabilities and criteria customization. Specific Vessels: FORAN has been successfully used to design tugs, work boats, hotel boats, trawlers, fish transport boats, oceanographic vessels, etc. Offshore: Widely used in the offshore industry, FORAN is used for floating, anchored and fixed platforms, as well as personnel transport boats, anchor ships, supply ships, rescue boats, firefighting boats and anti-pollution vessels. Project Phases with FORAN: Initial/Conceptual Project: Volume adjustment, layout definition, hull generation. Basic Project: Quick generation of 3D model, definition of the structure and positioning of equipment. Ship Detail: Detailed definition in all disciplines, with fast and flexible tools. Manufacturing and Assembly: Using the model to extract necessary information adapted to the needs of each shipyard. Operation: Continuous importance during operation for conversions, repairs, etc. FORAN – Advantages Flexible:  Highly adaptable, it offers customized solutions for shipyards of any size, with a modular structure for flexible and gradual implementation. Ideal for Modeling and Report Production:  Features full 2D drawing functionality and exclusive 3D model capabilities, with efficient management of product information in a single database. Easy to Use:  Simple graphical interface and specific focus on shipbuilding, allowing designers to learn, implement and use easily with minimal support. Reliable:  Generates accurate and reliable information for manufacturing and assembly, contributing to the reduction of material and labor costs. Efficient:  Integration of all disciplines and design phases, reducing costs and improving production quality. Automatically generates personalized purchasing models. Collaborative Engineering:  Facilitates collaboration between shipyards, engineering companies and subcontractors, eliminating risks of incompatibility and simplifying design team coordination. Open:  Simple data exchange with other technical and management systems due to the open structure of the FORAN database and system architecture with standard or customized interfaces. Technology FORAN's 3D boat design capabilities are based on specific shipbuilding technology. The system architecture combines an internal modeling and visualization kernel tuned to meet the needs of the shipping industry. The data management system is scalable, reliable and efficient. FORAN supports collaborative engineering in various environments, being able to exchange data in various formats, such as DWG, DXF, IGES, STEP, VDA, VRML and XML. It incorporates advanced features to optimize manufacturing and can be customized for any production equipment in the marine industry. In a scenario where innovation is essential, the partnership between CAEXPERTS and Siemens, with the integration of FORAN into Siemens Xcelerator and the assimilation of this technology in the market, redefines the standards of the naval industry. This collaboration offers a complete solution from conceptual design to production, addressing the specific needs of shipyards around the world. By adopting FORAN, you have access to a state-of-the-art CAD/CAM system that is flexible, adaptable and capable of boosting efficiency in all phases of naval design. From conception to operation, FORAN provides innovation, reliability and sustainability, aligning with the future demands of the industry. If you are looking to transform your approach to shipbuilding, schedule a meeting with CAEXPERTS now. Discover how advanced engineering and simulation solutions, combined with FORAN technology, can propel your company into the future. Let's shape the next chapter of shipbuilding together. Contact us and start this journey of innovation and efficiency. The future of your company starts here!

Digital transformation has evolved from a mere option to an imperative for organizations seeking to secure their competitive advantage and prosper in the market. The integration of digital technologies has become essential for streamlining operations, elevating customer experiences and optimizing overall efficiency. Counting on Siemens' technological partnership, CAEXPERTS is committed to guiding you towards resounding success on your digital transformation journey. This article presents ten essential tips to achieve this success. 1. Set Clear Goals and Define Success Metrics Before embarking on the digital transformation journey, it is crucial to define clear objectives and identify KPIs aligned with business goals and vision. Companies with well-defined objectives are 1.6 times more likely to achieve successful results. “...when companies achieve transformation success, they are more likely to have certain leaders with digital expertise. Less than a third of all respondents say their organizations have hired a chief digital officer (CDO) to support their transformations. But those who do are 1.6 times more likely than others to report a successful digital transformation.” Excerpt taken from the article about the survey “Unlocking success in digital transformations” from October 29, 2018 by McKinsey 2. Promote a Culture of Innovation Digital transformation goes beyond the adoption of technologies; It is essential to promote a culture of innovation. According to PwC, organizations with strong innovation are 3.5 times more likely to achieve significant revenue growth. 3. Invest in the Right Technologies Choosing the right technologies is crucial. Conduct a thorough assessment to identify the technologies that best align with your goals, from cloud computing to artificial intelligence and data automation. 4. Adopt Agile Methodologies Agile methodologies allow quick iterations and adaptability to changes. They promote collaboration, continuous improvement and rapid response to market dynamics. 5. Empower Employees Through Training Ensure your employees are adequately trained to use new technologies. Empower them with the knowledge and skills they need to thrive in the digital age. 6. Protect Your Digital Assets The average cost of a data breach is $4.45 million, according to the IBM Cost of Data Breach Report 2023. As your digital footprint expands, cybersecurity becomes crucial. Implement robust measures to protect your digital assets, data and intellectual property. 7. Emphasize Customer Centricity Digital transformation is not just an internal process; it also affects interaction with customers. Emphasize customer-centricity by leveraging data insights to deliver personalized experiences and tailored solutions. 8. Collaborate with Strategic Partners Strategic partnerships can accelerate the digital transformation journey. According to a study by Accenture, 76% of executives believe that partnerships are essential to driving the success of digital transformation. Collaborate with technology providers, consultants, and industry experts for valuable support. 9. Monitor Progress and Continuously Adapt Digital transformation is continuous. Monitor progress against predefined metrics and be prepared to adapt your strategies based on ongoing data and insights. 10 Communicate Transparently Effective communication is vital. Keep all stakeholders informed about progress, challenges and results. Transparency builds trust and gains support from employees, customers and partners. In conclusion, a successful digital transformation journey requires planning, a culture of innovation, and adequate resources. CAEXPERTS, as a Siemens technological partner specializing in computer simulation and advanced engineering, offers consultancy services and projects for product development, cost reduction and studies aimed at the operation of industrial enterprises . By adopting the tips presented, your organization will be able to thrive in the digital age, unlocking new opportunities for growth and success. CAEXPERTS, committed to the digitalization of engineering, works with computer simulation to virtually test projects, concepts and processes in the most critical scenarios, allowing companies to remain competitive in the market. Schedule a meeting with us right now. We are ready to help your organization reach new heights in the digital era and help your company with digital transformation.

Simcenter System Analyst is a collaborative solution that creates industry-specific applications to drive system simulation models in collaborative environments to increase model use in actual product development. Empower your project teams with a system variant performance assessment tool that requires no computer-aided engineering (CAE) experience. With this solution, design engineers can efficiently focus on evaluating and analyzing the performance of mechatronic systems while decreasing the cost of model development. CAE experts are standardizing and sharing their system simulation models and submodel libraries with project teams. Complexity is hidden in Simcenter System Analyst's simple GUI, eliminating the need to rework submodels when connecting Simcenter Amesim, Modelica, FMUs, or Simulink submodels. Address a variety of performance attributes and ensure system simulation model continuity. Simcenter System Analyst capabilities include: Define, share and track system variants: End users can easily define their system variants from the predefined variants available in the company database, modifying components as needed. Quickly create system variant management and simulation tools: CAE experts define model architectures with Simcenter Amesim, Modelica, or Simcenter System Architect, importing them into Simcenter System Analyst with associated submodel libraries. Multi-Criteria Batch Analysis Tool: End users can perform multiple runs in parallel to explore various system variants, using HEEDS software as a complementary tool to conduct the Exploration Project. Gather and deploy your enterprise knowledge: CAE experts can reuse or create Python pre/post-processing scripts to generate enterprise-specific pre/post models by importing existing validated models and submodel libraries created with Simcenter Amesim, Modelica, FMUs or Simulink. “Address a variety of performance attributes while ensuring system simulation model continuity” Electrification and control augmentation strategies expand system and architectural complexity. Original equipment manufacturers (OEMs) and suppliers need to quickly evaluate numerous variants to meet local market specifics without compromising quality and performance. Systems simulation provides the answer to these challenges. Design engineers need a fast, easy-to-use solution to perform multi-variant analysis to evaluate design options and balance the performance of mechatronic systems. Siemens Digital Industries Software offers Simcenter™ System Analyst software, a collaborative solution that creates industry-specific applications to drive systems simulation models. Running variant analysis in an easy-to-use simulation environment Simcenter System Analyst is a versatile platform designed for design engineers or program engineers. It is a multi-industry platform that can be deployed by automotive and transportation, aerospace or heavy equipment companies, integrating system simulation model architectures and libraries into a database. Easy to use even for design engineers without CAE skills, Simcenter System Analyst allows you to quickly configure simulation models. Instead of directly assembling and configuring simulation models, engineers select system architectures, components, and scenarios from the database. A multi-attribute analysis can be configured with just a few clicks, allowing design teams to evaluate hundreds of system variations in an easy-to-use environment with customized pre- and post-processing. “With Simcenter System Analyst, design engineers can focus on matching technology to end product requirements rather than creating models.” Deploying a simulation factory Simcenter System Analyst completes a broader system simulation factory scenario. To help deal with complexity, systems architects prepare model and library architectures as well as specific pre- and post-processing before deployment to the database and handoff to system analysts such as design engineers or program engineers. System architects standardize models and structure the system simulation framework for design engineers' analysis activities. Model architectures can be prepared with Simcenter Amesim software or Simcenter™ System Architect software. The Simcenter System Analyst tool-independent simulation framework supports model libraries based on Simcenter Amesim, Simulink, or any other tool that supports the Functional Mockup Unit (FMU) standard. In the context of deploying large systems simulation, Simcenter System Analyst is essential for deploying a simulation factory across your enterprise. Through easy-to-use system simulation processes, Simcenter System Analyst helps expand model use across your entire project team. For more information about Simcenter System Analyst, watch the video: As SIEMENS technology partners, we at CAEXPERT , experts in simulation and advanced engineering, are committed to offering solutions that transform your approach to engineering! Don't miss the opportunity to unify your systems and accelerate product development! Schedule a meeting now and take your technological innovation to the next level!