#CAE-assisted design

[gudmould]

It is recommended to refer to eight aspects when talking about injection molding companies reducing energy consumption.

For an injection molding product factory, injection molding process accounts for approximately 60% of energy consumption. Therefore, effectively reducing energy consumption of injection molding machine is an important way for injection molding factories to save energy. As energy-saving technology of injection molding machine itself continues to improve, reducing overall energy consumption of…

[anaghakaramthanathu]

How to Pick the Finest 3D Modelling Program for Your Needs in Engineering and Design

Selecting the appropriate 3D modeling software for your engineering and design projects is essential for achieving efficiency and maximizing productivity. Here’s a guide to assist you in making a well-informed choice among the leading software options available:

Scrutinize your project's needs: Start by identifying the specific requirements for your projects. Are you focused on architectural design, mechanical engineering, electrical systems, or structural analysis? Each software has its own strengths:

SketchUp: Ideal for rapid and intuitive 3D modeling in architecture, product design, and urban planning.

Spectron: Excels in advanced engineering simulations, supporting structural analysis and material science.

Rhino Software: Perfect for intricate mechanical parts and 3D printing, offering flexibility and precision.

Materialize: Specializes in 3D printing and additive manufacturing, providing tools for production-ready designs.

CSI Products (SAP2000, ETABS, SAFE): Tailored for structural analysis and design of buildings and bridges.

Siemens: Offers a variety of tools (NX, Solid Edge) for comprehensive CAD, CAM, and CAE applications in product development.

MI Power: Designed for electrical power system analysis, focusing on modeling, analyzing, and optimizing power grids.

Learning Curve Consideration: Consider how quickly your team can adapt to and use the software proficiently. Some software is straightforward, while others require more effort to master due to their complexity.

Integration and Compatibility Analysis: Evaluate how the software fits into your existing workflow and systems. Certain tools are noted for their seamless integration with a variety of platforms.

Cost and Licensing Analysis: Examine your budget and the licensing terms of each software. Many software solutions offer different pricing structures that are advantageous for smaller groups or solo practitioners.

Performance and Feature Testing: Use demo versions or trials to assess the software’s capabilities in your work environment. This hands-on experience will guide your decision-making process.

Seek Insights and Reviews: Collect feedback from colleagues and other users. Forums and discussion boards can provide in-depth insights into each software’s pros and cons.

Future-Proofing: Consider the scalability of the software and its ability to meet future project demands. Choose a solution that can grow alongside your projects.

Concerned about the ideal software for your project or in need of advice? For more assistance with similar services, get in touch with Tridax (tridaxsolutions.com), and their professionals would be pleased to help!

[richrdjones]

Top Tools and Apps for Sheet Metal Students

As a sheet metal student, mastering the intricacies of metalworking requires not only hands-on experience but also the right tools and resources. From software that aids in design to apps that help with calculations, having the right tools at your disposal can significantly enhance your learning experience and project outcomes. Here’s a look at some of the top tools and apps that can make your journey through sheet metal studies more efficient and effective.

Essential Software for Sheet Metal Design

SolidWorks Sheet Metal SolidWorks is a powerful CAD software that includes a dedicated module for sheet metal design. It offers comprehensive tools for creating complex sheet metal parts, including features like flange creation, bend allowances, and detailed flat patterns. Its intuitive interface and robust functionality make it a go-to choice for many students.

AutoCAD AutoCAD is another industry-standard tool that supports sheet metal design through its various drafting and modeling features. It allows for precise 2D and 3D design, helping students draft detailed plans and layouts with accuracy. Its versatility makes it a valuable tool for various types of projects.

Fusion 360 Fusion 360 combines CAD, CAM, and CAE in a single platform, making it ideal for sheet metal students who need to integrate design and manufacturing processes. It offers tools for modeling sheet metal components, performing simulations, and even generating toolpaths for machining.

Helpful Apps for Sheet Metal Calculations

Sheet Metal Calculator This app simplifies the process of calculating material requirements, bend allowances, and other crucial parameters for sheet metal projects. It’s handy for quick calculations on the go and can help ensure accuracy in your designs.

Metal Weight Calculator An essential app for estimating the weight of metal sheets based on their dimensions and material type. This tool is especially useful for students working on projects where weight is a critical factor.

Bend Allowance Calculator Accurate bend allowances are vital for ensuring that your sheet metal parts fit together correctly. This app calculates bend allowances based on the material thickness, bend radius, and angle, helping you avoid costly mistakes.

Collaborative and Learning Platforms

YouTube YouTube is a treasure trove of tutorials and how-to videos related to sheet metal work. Whether you're looking for basic techniques or advanced tips, many experienced professionals share their knowledge through instructional videos.

Reddit Subreddits related to sheet metal and fabrication provide a platform for students to ask questions, share their work, and seek advice from a community of experts and peers. Engaging with these communities can provide valuable insights and support.

Maximizing Your Learning Experience

While the above tools and apps are invaluable, it’s also important to leverage additional resources to enhance your understanding and performance in sheet metal studies. For example, if you find yourself struggling with complex assignments, you might consider seeking assistance from a sheet metal Assignment Helper. These experts can offer tailored support to help you grasp difficult concepts and complete your projects with confidence.

Incorporating these tools and resources into your academic routine can significantly streamline your workflow and improve your proficiency in sheet metal design and fabrication. Whether you're working on a simple project or tackling a challenging assignment, having the right tools at your fingertips can make all the difference in achieving success.

[education3244]

SolidWork: CAD Software

What Is SolidWork Software?

SolidWorks is a complete software suite for Computer-Aided Design (CAD) allowing users to create complex 2D/3D models. It is one of the Dassault System's powerful CAD and CAE software. Mostly used for product development, engineers and designers can also use it to create sketches, records, and models.

Features Of SolidWorks Software: 

3D Modeling In SolidWorks:

Solidwork 3d modeling allows to creation of a full 3d model for individual products. There would be a challenge to make 3d models in CAD software from basic to advanced. Some 3d model tools are Fillet, chamfer, mirror, Rib, draft, shell, wrap, etc. 

2D Design In SolidWorks:

You may make 2D drawings from within drawing documents with SolidWorks. This geometric design may contain arcs, circles, lines, and other shapes. Using this in a drawing can allow you to add notes, labels, and other 2D items on top of your 3D model views. 2D models are not created or edited by SolidWorks itself. It has several features for linking and working with 2D data in addition to being for building and modifying 3D models.

SolidWorks Designs:

Users can analyze their designs for motion, heat, fluid flow, and structural issues using SolidWorks Modeling. It helps in testing the design's functionality under different conditions before physical development.

Sheet Metal Design:

With the help of SolidWorks, you can create Sheet Meat Design. It can create flat designs from 3D representations and has specific tools to create metal sheet parts, such as bending limits.

Product Data Management (PDM):

All members of the team may work with the most current versions of the designs thanks to SolidWorks Product Data Management (PDM) assistance with model management of information and revision control.

Applications of Solidworks Software:

Universities/Colleges:

SolidWorks is a commonly used software in industry and engineering colleges, knowing how to use it well is an important skill for engineers and designers. It provides a simple user interface and an extensive collection of online materials, guides, and offline support to assist users in getting started and developing their skills. 

Improve your skills with the SolidWorks Training Online. Learn from industry professionals in hands-on training.

Professionals Engineers:

Many engineers and professionals in mechanical, aerospace, and automotive, use SolidWorks software for designing and analysis of structures using in the industry. 

Products Design:

SolidWorks software can also be helpful to product designers, as it facilitates the realization of designs through quick 3D modeling in Solidworks and graphics solutions. It is used for the creation of different consumer products, including electronics and home furnishings.

Conclusion

SolidWorks is an incredibly powerful and flexible tool that helps with the design, analysis, and documentation of many different kinds of systems and products in many different sectors. PIGSO LEARNING aspires to offer specialists, research experts, and engineering students an extensive learning program.

[mitcenter]

What is CATIA? Features, Uses, and Future

In the world of computer-aided design (CAD), CATIA stands out as a premier software solution used across various industries. Developed by Dassault Systèmes, CATIA (Computer-Aided Three-Dimensional Interactive Application) is renowned for its robust capabilities in 3D modeling, simulation, and product lifecycle management. This blog delves into what is Catia and its features, uses, and future prospects of CATIA, highlighting why it remains a vital tool in engineering and design.

Understanding CATIA

CATIA is a multi-platform CAD/CAM/CAE software suite that excels in creating detailed 3D models and simulations. Originally launched in 1977 for the aerospace industry, it has since expanded its reach to automotive, industrial machinery, shipbuilding, and even consumer goods industries. CATIA's strength lies in its ability to handle complex designs and simulations, offering a seamless workflow from concept to production.

Key Features of CATIA

Comprehensive Design Tools: CATIA provides an extensive range of design tools that cater to both parametric and non-parametric modeling. It enables users to precisely generate complex 3D parts, assemblies, and sheet metal designs.

Advanced Surface Modeling: CATIA's Generative Shape Design and Imagine & Shape workbenches enable the creation of advanced surface models. These tools are particularly useful for designing aerodynamically efficient structures and aesthetically pleasing consumer products.

Simulation and Analysis: With integrated simulation tools, CATIA supports finite element analysis (FEA), kinematics, and dynamics simulations. This capability ensures that designs are not only visually accurate but also structurally sound and optimized for performance.

Product Lifecycle Management (PLM): CATIA's PLM solutions facilitate efficient data management and collaboration across the product development lifecycle. This ensures that all stakeholders are aligned and that design changes are tracked and implemented smoothly.

Cross-Disciplinary Integration: CATIA allows for the integration of various engineering disciplines within a single platform. Whether it’s mechanical engineering, electrical, or systems engineering, CATIA provides a unified environment for collaborative design.

Customization and Automation: Through its scripting and programming interfaces, CATIA enables users to automate repetitive tasks and customize the software to meet specific project requirements. This feature enhances productivity and reduces the potential for human error.

Uses of CATIA

Aerospace and Defense: CATIA’s origins in the aerospace industry have made it the go-to tool for designing complex aircraft structures. Companies like Boeing and Airbus rely on CATIA for everything from fuselage design to cabin interiors.

Automotive Industry: In the automotive sector, CATIA is used to design and simulate entire vehicles. It aids in the development of bodywork, engine components, and interior features, ensuring that vehicles are both efficient and safe.

Industrial Equipment: Manufacturers of industrial machinery utilize CATIA to create detailed models of equipment, allowing for thorough testing and validation before production. This reduces the risk of costly errors and downtime.

Consumer Goods: From household appliances to sports equipment, CATIA helps designers create innovative products that meet market demands. It is extremely useful for product development and marketing because of its capacity to generate lifelike representations and simulations.

Shipbuilding: In shipbuilding, CATIA assists in designing complex ship hulls and systems, ensuring compliance with stringent safety and performance standards. It helps with every step of the process, from conceptualization to intricate engineering.

The Future of CATIA

The future of CATIA looks promising as it continues to evolve and adapt to the needs of modern industries. Here are some of the essential trends which you need to know.

Integration with IoT and Industry 4.0: As the Internet of Things (IoT) and Industry 4.0 become more prevalent, CATIA is poised to integrate seamlessly with these technologies. This will enable real-time data exchange between physical products and their digital twins, enhancing design accuracy and operational efficiency.

Enhanced Collaboration Tools: With the rise of remote work and global collaboration, CATIA is expected to improve its cloud-based solutions, making it easier for teams to work together from different locations. Enhanced collaboration tools will facilitate better communication and faster decision-making.

Artificial Intelligence and Machine Learning: Design procedures will be completely transformed by the integration of AI and machine learning into CATIA. Predictive analytics, generative design, and automated optimizations will become standard features, allowing for more innovative and efficient product development.

Sustainability and Eco-Friendly Design: As industries push for greener practices, CATIA will likely incorporate more tools for sustainable design. This includes features for material optimization, energy efficiency analysis, and lifecycle assessment, helping companies create eco-friendly products.

Conclusion

CATIA remains at the forefront of CAD software, offering unparalleled capabilities in design, simulation, and lifecycle management. Its comprehensive features and versatility make it a crucial tool for a wide range of industries. As technology advances, CATIA is set to embrace new trends and innovations, ensuring it continues to meet the evolving needs of designers and engineers worldwide. Whether you are an aerospace engineer, automotive designer, or consumer product developer, CATIA provides the tools necessary to bring your vision to life with precision and efficiency.

[jcmarchi]

Why Space? The Opportunity for Materials Science and Innovation - Technology Org

New Post has been published on https://thedigitalinsider.com/why-space-the-opportunity-for-materials-science-and-innovation-technology-org/

Why Space? The Opportunity for Materials Science and Innovation - Technology Org

Professor Manus Hayne from Lancaster University has outlined the opportunities for materials science in Space in a position paper from the Why Space? Working Group.

The Wake Shield Facility is a free-flying research and development facility designed to use the pure vacuum of space to conduct scientific research in the development of new materials. Image credit: NASA

The paper entitled “Why Space? The Opportunity for Materials Science and Innovation” and produced with the assistance of the Satellite Applications Catapult, is the culmination of over a year of engagement with the Space and materials communities and was enabled by support from the Science and Technology Facilities Council.

By studying the effects of gravity on the properties and behaviour of fluid and solid systems, scientists are developing new manipulation strategies and materials in Space with properties or functionalities that cannot be achieved in normal gravity conditions. This will inform the development of the next generation of advanced materials with superior physicochemical properties to support future Space exploration and revolutionise established processes on Earth, including design and manufacturing.

Professor Hayne authored a chapter for the paper entitled “Compound semiconductor manufacturing and use in space”.

He has 35 years of experience in compound semiconductor physics and devices, is a co-inventor on several patents and patent applications related to ULTRARAM™ memory technology, vertical cavity surface-emitting lasers, single photon sources and novel digital logic devices. He is also the co-founder and Chief Scientific Officer of the Lancaster University spinout company Quinas Technology Ltd.

He and his team are actively building links between the compound semiconductor and space communities, for example with Frazer-Nash Consultancy, CAES and Open Cosmos.

Professor Hayne said: “There are presently UK strategic priorities that provide research and innovation opportunities in space, in energy and in semiconductors. These uniquely combine in the use of compound semiconductors in space applications. The UK Semiconductor Strategy has a particular focus on compound semiconductors, which is an area of UK strength.

“While the development of the technology must clearly be terrestrial, space relevant characteristics must be considered in the design and implementation, and properties and performance validated in space to reach high technology readiness levels and commercial viability.”

The global use of advanced materials, including composites and alloys, in Space industry technologies, from launch vehicles to satellites, amounts to approximately £1.2 billion annually. In line with the growth trajectories of the Space sector over the next decade, the value of advanced materials in the Space industry will expand threefold, reaching an estimated £4 billion by the year 2035.

Additionally emerging microgravity research and orbital engineering platforms are poised to open new opportunities for materials R&D in Space. The value of R&D, utilising orbital platforms, to develop next-generation semiconductor materials alone, could reach a value of £150-300 million each year, by the early 2030s according to McKinsey & Company.

Dr Paul Bate, CEO of the UK Space Agency said: “Advanced materials are the building blocks of an innovative society, and the space sector can make a significant contribution by developing, researching and testing new materials using the unique environment of microgravity. This already happens on the International Space Station, and there are huge opportunities for the UK associated with future space stations as well as dedicated satellites and spacecraft.

“This important paper explores these opportunities and considers a number of areas where government, academia and various industrial sectors can work together to make the most of them.”

The UK’s Space economy is enjoying rapid growth and actively developing its own launch capabilities. Building on the UK’s world-leading expertise in materials science and related R&D, this position paper provides a cohesive case for funders on the opportunity for discovery and applied level research through involvement with Space. It aims to support exploration roadmaps from leaders in agencies, industry and academia, to better understand the possibilities for new research and innovation, and how the UK will secure its targeted share of the market.

Dr Philip Carvil, Coordinator of the working group for the paper, said: “With the increased capacity in Space access, through the ongoing development of a robust Space launch and Space provider ecosystem, there is the opportunity to bring the expertise in the materials community closer to the opportunity that the Space environment provides.”

John Abbott, CEO of the Satellite Applications Catapult said: “The development of in-orbit processing of materials and the manufacture of new products, many of which simply cannot be made on Earth, will create significant opportunities for UK organisations at home and in the global economy.

“Working alongside other agencies, we are bringing industry and academia together to advance the development of materials science in orbit and grow this emerging sector. We are positioning the UK as a world-leader in the field, and this is exactly the type of high-risk, high-reward area in which the Catapults excel.”

Source: Lancaster University

You can offer your link to a page which is relevant to the topic of this post.

[g2ginnovation]

What is computer-aided engineering (CAE)?

Computer-Aided Engineering (CAE) is a sophisticated and integral part of the engineering design and analysis process. It is a branch of computer-aided design (CAD) that focuses specifically on the application of computer software and simulation tools to assist engineers and designers in analyzing, testing, and optimizing their designs.

Master Certification Course in CAD & CAE is designed by experts from industries, to give a platform to each and every mechanical engineer, to enhance CAD and CAE Skills from the start of the career with continuous learning process. Master the Future of Engineering with G2G Innovation’s Advanced CAD CAM CAE Software Training in Pune. Unleash the power of innovation with G2G Innovation’s insight into Computer-Aided Engineering (CAE)! Explore the limitless possibilities of design optimization, simulation, and groundbreaking solutions that propel industries forward. Elevate your engineering game with G2G Innovation.

Key Components of CAE: Simulation Software: CAE employs powerful simulation software to replicate real-world conditions and behaviors of products or systems. This allows engineers to assess the performance of designs without the need for physical prototypes, saving time and resources.

Structural Analysis: Engineers use CAE for structural analysis to evaluate how a design will respond to various forces, stresses, and environmental conditions. This is crucial for ensuring that a structure or component can withstand the demands it will encounter in its intended application.

Fluid Dynamics: CAE is extensively used for simulating fluid dynamics to analyze how liquids or gases interact with a design. This is especially valuable in industries such as aerospace and automotive for optimizing aerodynamics and thermal management.

Thermal Analysis: Understanding how a design responds to thermal conditions is vital in many industries. CAE tools help engineers simulate heat distribution, thermal stress, and other related factors, ensuring that products operate within safe temperature ranges.

Motion Analysis: CAE enables engineers to simulate the motion of components or systems. This is particularly useful in designing mechanical systems, robotics, and machinery, allowing for the optimization of movement and performance.

Electromagnetic Analysis: In fields like electronics and electrical engineering, CAE is employed to simulate electromagnetic behaviors. This includes studying the impact of electromagnetic fields on components and optimizing designs for performance and safety.

Benefits of CAE: Cost Reduction: By allowing engineers to identify and rectify potential issues during the virtual design phase, CAE significantly reduces the need for physical prototypes, saving both time and costs in the product development cycle.

Improved Product Quality: CAE facilitates a more thorough and detailed analysis of designs, leading to higher-quality products that meet or exceed performance expectations.

Enhanced Innovation: Engineers can explore and test a wide range of design possibilities quickly and efficiently, fostering innovation and creativity in the product development process.

Accelerated Time-to-Market: The ability to conduct comprehensive simulations expedites the design process, reducing time-to-market for new products and technologies.

Applications of computer-aided engineering:

Applications of Computer-Aided Engineering (CAE) extend across diverse industries, revolutionizing the design and analysis processes. From aerospace to automotive, electronics to structural engineering, CAE plays a pivotal role in optimizing and validating designs. Engineers leverage CAE for structural analysis to assess the impact of forces, fluid dynamics for aerodynamic efficiency, and thermal analysis for temperature management. Motion analysis ensures precise machinery movement, while electromagnetic analysis aids in designing electronics. With its ability to simulate real-world conditions, CAE accelerates innovation, reduces costs, and enhances the overall quality of products, making it an indispensable tool in the modern engineering landscape.

Finite element analysis (FEA)

Finite element analysis is used to predict how a model will react to forces in the real world—sort of like a digital prototype. This analysis is part of the product design cycle that examines the effects of forces such as heat, vibration, and much more on a designed model.

Computational fluid dynamics (CFD)

Computational fluid dynamics allow you to model digital fluids in your CAD system and save on hardware prototyping costs. With the use of numerical analysis, you can study and visualize the flow of fluids in real life.

CAM

Improve quality, lead time, and costs by using CAM software that gives you the highest quality precision machining in the fastest possible time. Increase productivity and toolpath designs with more efficient machining and tooling of sheet metal along with additive manufacturing.

In conclusion, Computer-Aided Engineering (CAE) is a pivotal tool in the modern engineering landscape, offering a virtual environment for in-depth analysis, optimization, and validation of designs before they physically come to life. It plays a crucial role in ensuring the efficiency, reliability, and competitiveness of products across diverse industries. G2G INNOVATION offers top-notch mechanical engineering courses in Pune. Gain expertise in CAD/CAM, FEA, CAD & CAE, Unigraphics, Siemens NX, NX CAD, CREO, HyperMesh, AutoCAD, ANSYS, Catia v5, and product design through our industry-oriented training programs. Enhance your skills and propel your career in the field of mechanical engineering with us. Unlocking the future of innovation with G2G Innovation’s expertise in Computer-Aided Engineering (CAE)! Explore the limitless possibilities of design optimization, analysis, and virtual testing. Elevate your engineering game with precision and efficiency.

[govindhtech]

Google Cloud HPC: Turbocharge Your Design Process

For computer-aided engineering, Google Cloud HPC can speed up your design and simulation processes

Mechanical Engineering improve creative groups are coming under ever greater stress to come up with solutions quickly, optimize the performance of goods, effectively shorten the time it takes to in the fiercely competitive marketplace of today.

Numerous CAE operations need a large amount of processing power. Google Cloud HPC is used by organizations to manage big datasets and complicated simulations that were previously handled by specialized, on-premises HPC facilities. But the cloud’s capacity to handle HPC workloads has significantly improved, enabling engineering teams to take use of the cloud’s flexibility, scalability, and performance.

Google has created a Computer Aided Engineering system that combines the necessary technology to effectively operate large CAE applications. The solution is designed to fit the simulation and analysis phases of CAE workflows and makes use of Google Cloud HPC capabilities.

Using CAE analysis and simulation to unleash creativity

Through a capacity to visually model, simulate, examine, and enhance designs, computer-aided engineering has entirely transformed the design and construction process, replacing the demand for physical prototypes and speeding up product development cycles. A vast array of applications, each tackling distinct technical issues, are covered by CAE.

These applications include:

Through the use of fluid dynamics, engineers may analyze heat transfer characteristics and optimize aerodynamic performance by simulating fluid flow around objects.

Thermal analysis ensures thermal efficiency and guards against overheating by simulating heat transport inside and around components.

Designing antennas, RF circuits, and electromagnetic compatibility all depend on the simulation of electromagnetic fields and their interactions with materials, which is made possible by electromagnetic analysis.

These use cases, along with a plethora of others, serve as the foundation of CAE, giving engineers strong tools to improve designs and guarantee the performance and safety of their products. CAE is becoming a crucial part of the engineering toolkit due to the complexity of engineering problems growing and the need for quick innovation.

Conceive: Using Computer Aided Design (CAD) software, engineers produce and investigate design ideas during the conceive stage.

Design: Engineers use CAD technologies to improve and streamline their designs throughout the design phase.

Develop: Using the techniques from the validate stage, engineers use CAE tools to build prototypes and test them in the develop stage.

Validate: During the validate phase, engineers confirm that their designs satisfy the necessary performance and safety requirements using CAE tools.

Manufacture: Using the CAD design as an input to multiple manufacturing processes, the manufacture step brings the designed and verified digital objects to life.

Google Cloud HPC is used extensively in the validate stage analysis and simulation. Engineers may run the validation stage more quickly or even run more faithful models when HPC is easily accessible for CAE processes, which boosts productivity and results in better products overall.

Google Cloud HPC: An effective way to speed up CAE processes

Google Cloud is assisting clients in setting up HPC systems that integrate the advantages of an elastic, flexible, planet-scale cloud with the HPC needed for CAE simulation and analysis.

Google have put together the appropriate cloud components to satisfy the demands of these computationally demanding workloads, making it simple to utilize Google Cloud for CAE processes. The H3 and C3 virtual machine families from Google Cloud, which are built on the newest Intel Xeon processors and provide balanced memory/flop ratios and excellent memory bandwidth, are the foundation of her solution architecture. These processors are ideal for CAE applications.

Up to 16GB of RAM per core may be used by the system to manage memory-intensive workloads and closely connected MPI applications. Additionally, it offers a range of storage options to meet both common and unusual I/O needs. It supports schedulers like Altair’s PBS professional and SchedMD’s Slurm for resource control.

It has been confirmed that the CAE Reference Architecture blueprint works well and is interoperable with the most popular CAE software, including Siemens Simcenter STAR-CCM+, Altair Radioss, Ansys Fluent, Ansys Mechanical, and Ansys LS-DYNA. The solution architecture is as follows:

Apart from the blueprint for the CAE reference architecture, Google also provide blueprints that show how to customize certain CAE software from source or binaries:

Siemens Star-CCM+ Ansys OpenFOAM Smooth Operation for demanding CAE workloads

The Google CAE solution is well suited for per-core-licensed applications since it makes use of Intel’s most recent generation Xeon processor, the Intel Sapphire Rapids, which is geared for great per-core performance.

Google examined the performance of Google’s H3 virtual machines (VMs) to the C2 generation of Intel-based VMs for many important CAE applications. Prominent CAE programs run 2.8x, 2.9x, and 2.6x quicker on H3 VMs than on C2 VMs: Ansys Fluent 2022 R2, Siemens Simcenter STAR-CCM+ 18.02.008, and Altair Radioss 2022.3.

By investing more computing resources in a single simulation, engineers may get design validation findings more quickly. The performance improvement of Ansys Fluent executing the 140 million cell F1 RaceCar CFD benchmark is shown in the graph below. The speedup doubles when the number of H3 VMs is increased from two to four. For Ansys Fluent, the comparable speedup is obtained with around 90% parallel efficiency even at 16 VMs, or 1408 cores.

Utilizing Cloud HPC Toolkit Blueprints to expedite CAE installations

In order to facilitate the easy integration of the CAE solution for bespoke deployments, google have released the general purpose CAE reference architecture as an Infrastructure as Code (IaC) blueprint for clients and system integrators. The CAE reference architecture may be easily deployed on Google cloud using this blueprint in conjunction with the open-source Cloud HPC Toolkit from Google.

Prominent CAE software, including Siemens Simcenter STAR-CCM+, Altair Radioss, Ansys Fluent, Ansys Mechanical, Ansys LS-DYNA, and OpenFOAM, has been used to evaluate the CAE solution.

Google provide comprehensive benchmark data, tools for getting started, and additional information on the solution’s components in her technical reference guide, Running computer-aided engineering workloads on Google Cloud.

In summary

For complex CAE processes, Google Cloud HPC offers a robust and scalable HPC solution. You may easily start this trip and discover the revolutionary potential of rapid simulations and analyses with her CAE solution.

Read more on Govindhtech.com

[ruchikalts]

CAE Software Costs: A Comprehensive Analysis Including Siemens Simcenter 3D

Costs associated with Computer-Aided Engineering software, such as Siemens Simcenter 3D, are critical considerations for businesses aiming to leverage advanced simulation capabilities in product development. CAE software empowers engineers to simulate and analyze complex behaviors, aiding in design optimization and performance prediction. Understanding the pricing models and factors influencing CAE software costs, especially notable solutions like Siemens Simcenter 3D, is pivotal for informed decision-making.

Factors Influencing CAE Software Costs:

1. Licensing Models:

Subscription-Based: Offering flexibility with recurring payments based on usage or time.

Perpetual Licenses: Upfront costs for owning the software perpetually, often accompanied by yearly maintenance fees.

2. Software Modules and Functionalities:

Core Features: Base software functionalities might be included in the standard license cost.

Specialized Modules: Additional charges for specific simulation modules (e.g., structural analysis, thermal simulations, fluid dynamics).

3. Deployment Options:

On-Premises: Costs associated with infrastructure, maintenance, and initial setup.

Cloud-Based: Subscription-based models offering reduced upfront investment but recurring operational costs.

4. Customization and Support:

Custom Solutions: Tailoring software to specific business needs might incur additional expenses.

Technical Support: Costs associated with ongoing support, updates, and training.

Siemens Simcenter 3D Cost Analysis:

Siemens Simcenter 3D stands as a prominent CAE solution, offering an extensive suite of simulation tools for various engineering domains.

Cost Elements for Simcenter 3D:

Licensing: Varied pricing based on licensing models, additional modules, and user access.

Deployment Options: Cloud-based or on-premises models with different cost structures.

Modules and Functionalities: Additional charges for specialized simulations (e.g., structural, thermal, motion).

Support and Maintenance: Annual fees for updates, technical support, and training.

Optimizing CAE Software Investments:

1. Identify Specific Needs:

Conduct thorough assessments to identify necessary functionalities and modules required for your engineering workflows.

2. Compare Pricing Models:

Compare subscription-based versus perpetual licensing costs and evaluate which aligns best with your budget and long-term plans.

3. Request Custom Quotes:

Engage directly with Siemens or authorized resellers to obtain personalized quotes tailored to your requirements.

4. Consider Total Cost of Ownership (TCO):

Evaluate the holistic costs, including initial investment, maintenance, support, and potential scalability.

Final Considerations:

CAE software cost, including Siemens Simcenter 3D, significantly vary based on deployment models, functionalities, and support structures. Engaging with software providers for customized quotes and thoroughly analyzing requirements can assist in making informed decisions. Considering the long-term benefits and potential enhancements in product development, a well-considered investment in the best CAE software can significantly impact engineering efficiency and innovation.

We at Longterm Technology Services Inc., can provide you a tailored approach. You can avail free CAE Software trial at Siemens Digital Industries Software.

[wcssalon]

Ansys mechanical classes in Pune with the best placements

1.Explanation of CFD Analysis

Students will learn about computational fluid dynamics (CFD) analysis in this course. The use of ANSYS software to perform CFD analyses utilizing both steady-state and transient flow simulations is taught to students. Fundamental ideas in fluid mechanics are covered in this course, including boundary conditions, turbulence models, conservation laws, and numerical techniques. Students learn about the ANSYS software's foundations and potential. The students are then given instruction on the many solutions that can be used in ANSYS Mechanical to resolve problems. Last but not least, they discover how to set up and run an ANSYS simulation.

Finite Element Analysis Fundamentals In this course, students learn how to use finite element analysis to analyze complex structures. Beginning with the governing equations and their mathematical representation, students first explore the FEA theory. After that, they learn how to create ANSYS models. After that, they are shown how to import these models into ANSYS. Finally, students learn how to use ANSYS to simulate a model. The whole semester, students practice using FEA to real-world applications.

Basic Concepts in Structural Mechanics Structural mechanics is used to teach students how to analyze the behavior of materials under loads and stresses. This course covers the theory behind structural mechanics, including the governing equations, boundary conditions, and material properties. Also covered in the curriculum is how to build and load models in ANSYS. They are then given instructions on how to use the various ANSYS tools for analyzing simulation data. Finally taught to students is how to export ANSYS results. Students practice analyzing straightforward instances throughout the course and then apply what they learn to more complicated scenarios. For mechanical, production, and automotive engineers as well as Ansys classes in Pune, g2g innovation is a specialist in CAD, CAE, and mechanical engineering design.

ACE (Automation Certified Engineer) is a career-focused course for Industrial Automation engineers in the fields of Electrical, Electronics, E&Tc, Instrumentation, Mechanical, and Civil.

g2g innovation is the designated training provider for Dassault Systèmes for CATIA, Siemens PLM for Nx CAD, and Altair for Hyperworks.

With regard to mechanical engineering design, CADCAMGURU offers students career-focused courses and 100% placement assistance. To far, g2g innovation has placed more than 5000 students with the best businesses in India.

For mechanical, production, and automotive engineers, g2g innovation specializes on CAD, CAE, and mechanical engineering design. They also provide Ansys classes in Pune.

https://g2ginnovation.com/

#mechanicalcourses

#mechanicalengineering

#cadclasses

[oldjoker233]

3D modeling techniques

I have found some techniques that might able to help me in the future works.

A little summary :

Primitive modeling: Primitive modeling is a basic 3D modeling technique that uses primitive shapes like spheres, boxes, pyramids, toruses, and cylinders as building blocks to create complex objects. It uses basic Boolean operators to create layouts and shapes, and is used by architects to visualize building layouts, increasing speed and saving time.

Polygonal modeling: A 3D modeling technique that uses X, Y, and Z coordinates to represent an object and its surface. It is faster, allows for motion data, and is preferred for real-time computer graphics and scan line rendering.

Non-uniform rational B-spline modeling (NURBS): NURBS is a mathematical model tool that creates 3D geometry through curves and surfaces, representing both standard and free-form geometric objects. It is mainly used in CAD, manufacturing, and CAE, offering accuracy and flexibility. NURBS is accessible with computer programs and is used in illustration, animation, and manufacturing processes.

3D CAD modeling: 3D CAD Modeling creates virtual reality objects with physical properties, converting 2D drawings into 3D models using complex mathematical calculations. This process evaluates model behavior in real environments, aiding architects in visualization of building projects and 3D exterior design.

BIM modeling: BIM is a 3D digital representation of a facility's physical and functional characteristics, used by AEC professionals for efficient planning, design, construction, and maintenance. It improves decision-making, collaboration, and communication, while offering better visualization, energy-efficient design, cost optimization, and productivity.

Wireframe CAD modeling: Wireframe CAD modeling is a 3D computer graphics process that visually represents physical objects using lines and curves. It is used for construction, solids, and surfaces, providing high-quality solid representation. It is suitable for high screen frame rates and is convenient for creating simple building models and real estate projects.

3D interior modeling: 3D interior modeling, based on interior design, sketches, and digital drawing, defines floor plans, spacious layouts, and features like color scheme, lighting, and furniture. It helps recommend changes and select the best model, used in real estate and product modeling.

eLogicTech can help to leverage 3D modeling technology to the fullest: eLogicTech, an architectural 3D modeling service provider, has significantly impacted the construction industry by managing challenges and providing innovative designs. They offer BIM modeling, MEP, and 3D visualization services, assisting architects, contractors, and clients in creating creative and innovative projects.

Not as I think, this is not that useful but somehow have something to use for.

[caddesk1234]

Empower Your Future with CAD Desk Noida

In the ever-evolving landscape of technology and design, staying ahead of the curve is crucial. This is where CAD Desk Noida steps in as your trusted partner on the journey to mastering Computer-Aided Design (CAD), Computer-Aided Manufacturing (CAM), and Computer-Aided Engineering (CAE).

The CAD Desk Advantage

Unparalleled Expertise

With a team of seasoned instructors who are experts in their respective domains, you'll receive top-notch education. Whether you're a beginner or looking to enhance your skills, their comprehensive courses cater to all levels of proficiency.

Cutting-Edge Curriculum

In a world where technology evolves rapidly, CAD Desk Noida ensures that your skills remain up-to-date. Their curriculum is meticulously crafted to align with industry trends and demands.

State-of-the-Art Facilities

Learning is most effective when supported by the right environment. CAD Desk Noida boasts state-of-the-art facilities equipped with the latest software and hardware. You'll have access to industry-standard tools to gain hands-on experience and hone your craft.

Industry Connections

CAD Desk Noida's strong industry connections open doors to a world of opportunities. They collaborate with renowned companies to provide real-world insights, internship opportunities, and even placement assistance.

Flexible Learning Options

Understanding the diverse needs of learners, CAD Desk Noida offers flexible learning options. Whether you prefer in-person classes or the convenience of online learning, they have you covered..

Your Path to Success

CAD Desk Noida isn't just an institute; it's a launchpad for your career aspirations. Whether you're interested in design, manufacturing, or engineering, their courses provide a solid foundation and the skills needed to thrive in today's competitive job market.

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[qocsuing]

Best CAD Modelling Software for Automotive Applications

Best CAD Modelling Software for Automotive Applications

Have you ever wondered if there was an ideal CAD modelling software for automotive applications? If so, you’ve come to the right place. And even if you are not wondering about the question, it is always beneficial to be aware of the best CAD modelling software that can be used efficiently in automobile part design.To get more news about CAD, you can visit shine news official website.

With the adoption of 3D printing in the automotive industry, new-age car design software has gained importance, and the demand for designers familiar with the additive manufacturing design principles is increasing. As a result, it is recommended that any designer aspiring to work in the automotive sector understand 3D printing technology, be trained in top car designing software, understand how it affects the industry, and know how to design digital automotive models. There is not just one, but several cad software used in automotive industry that are ideal for product development. Check out our list of the top 7 CAD Modelling Software for Automotive Applications for users to consider for their design requirements.

Catia, a multi-platform software suite from Dassault Systèmes, is by far the best-in-class surface modelling software on the market. It was first released in 1982 as CAD software, but it has since evolved to do much more than just create models. It can now also perform computer-aided engineering (CAE). and even has one of the best product lifecycle management (PLM) suites in the industry. This automotive CAD modelling software is primarily used for 3D surface and solid modelling, fluid and electronic system design, consumer electronics design, mechanical engineering, structural design, and 3D modelling for 3D printing. It’s also commonly used for engineering models, and it offers a comprehensive solution for designing, shaping, and managing the integration of chassis and powertrains, Class A surfaces, and interior design into the automotive product lifecycle. SolidWorks Dassault Systèmes’ Solidworks is another solid modelling software. This software, which was first released in 1995, is now widely used in the automotive and transportation industries due to its versatile capabilities that meet industry standards. SolidWorks has an easier-to-use interface than Catia and can be used for design or mechanical part creation. Designs can be virtually validated quickly, reducing manufacturing time.

Fundamentally, Solidworks is a purely CAD modelling software unlike Catia which is much more diverse. However, Solidworks has an easier-to-use interface than Catia and can be used for design or mechanical part creation. Designs can be virtually validated quickly, reducing manufacturing time. Creo Parametric PTC’s Creo Parametric, solid modelling software has been around since 1988. It has been a major and direct competitor to Solidworks. In fact, Solidworks was created as a competitor to Creo Parametric.

Creo is a popular CAD modelling software for automotive applications. The experienced professional who works with complex geometries and requires highly detailed simulations is Creo’s primary target user. Blender Blender is a free and open-source 3D modelling application that assists users with modelling, texturing, rigging, animation, lighting, and other tasks. Ton Roosendaal, a Dutch software developer and film producer, created it in 1994 as in-house software for his animation studio. However, it has since evolved into a powerful software that can virtually model anything.

[businesssinfo]

Why CFD simulation is so important in building ventilation design.

When it comes to sustainable building design, emphasis on environmental impact should be considered. The sustainable building design is about ensuring the core factors such as aesthetics, occupant comfort, indoor air quality and fire safety standards. Computer Aided Engineering (CAE) emphasis more on sustainability very early in the design process. CFD adds considerable value in building design including energy efficiency and environmental impact. It also takes advantage of natural resources to significantly improve the sustainable development.

Understanding the effect of CAE in building design

CFD in early design process provides real-world validation and its impact on the design, before anything is built. Architects are able to understand the flow and thermal behaviour and helps them validate how the design changes can impact the ventilation objectives or meet Government certifications.

It enables architects to study the ventilation effectiveness early in the development stage before significant investment or resources are committed.

It gives architects and HVAC engineers to demonstrate and achieve energy efficiency for energy certifications or air quality standards before actual construction. CFD also takes into account the surrounding environment of the actual site.

It enables to meet the fire and safety standards of your building design by devising the fastest safety evacuation path and optimizing the placement of sprinklers and other equipment at appropriate locations. 

It provides the tools for most cost-effective and fastest design validation process, especially when the built environment is designed for sustainability. Insights gained through simulation can help Architects to better their design through virtual prototyping.

Myths of CAE

CFD is more expensive and time consuming

Yes, CFD is more expensive and time consuming which can increase your overall design budget. Yet the insight provided by numerical simulation can make significant cost savings in overall lifecycle of the building.

During the last 5 years, with the advent of more robust software algorithm and sophisticated computing capability, CFD has become more accurate and simpler than ever before.

CFD is too difficult to understand and experts are needed to interpret the results

Yes, inorder to understand the arrived results, the person should have sound knowledge in Fluid mechanics, Thermodynamics and Numerical methods to verify whether arrived results are logically correct and the physics of the system is completely captured.

We live in this space between our clients, our Industry experts can make you understand the results and assist you through every process of the design.

Most building design do not need CFD

This myth is largely been associated with history, most architectural marvels were designed centuries before CFD came into the picture, for example – Hawa Mahal, Rajasthan is the most efficient naturally ventilated buildings in the world.

But today’s Business environment is more conducive to reliable, energy-efficient and safer built environments. We perhaps think that CFD can lead to fewer design mistakes, smoother workflows, greater engagement and usability.

CFD results cannot be trusted

Accuracy of the CFD results has been proven in every realm of Architectural design, many Government agencies have made CFD an essential and mandatory tool for validating the design before being built. But, as with anything it is upto the person performing the analysis and the physical models used to simulate it.

Conclusion

In conclusion, CFD simulation plays a crucial role in building ventilation design for sustainable and efficient building development. Graphler Technology Solution provides CFD Analysis services, Engineering Animation Services and other top-notch CAD Conversion Services, product design and related services. For further information, please get in touch with us. We are always here to help you out.

[meghalayacareer]

CIPET Recruitment 2023: Assistant Officer, Technical Officer & Other (38 Posts)

CIPET Recruitment 2023: Central Institute of Petrochemicals Engineering & Technology (CIPET) has released an employment notification for the recruitment of the following posts. The last date for submission of the application is 29th May 2023. 1. Post Name:- Assistant Technical Officer (Skill Development/ Processing/ Testing / Design/ Tool Room/ CAD/CAM) - No of posts:- 10 - Upper age limit:- 32 years. Upper age relaxation as per Govt rules. - Salary:- VII CPC Pay Matrix Level 7 & Basic Pay: Rs.44900/- per month - Essential Qualification:- Full-time 1st Class in B.E./B. Tech in Mech/ Chem/Polymer Technology or equivalent with two years of relevant post-qualification experience. Or Full-time 1st Class M.Sc. with specialization in Polymer Science with 3 years post qualification experience in the relevant field of Polymers/Plastics. # At least 3 years experience in pay matrix level-06 under the Central Government or State Governments or Union Territory Administrations or Public Sector Undertakings or Universities or Recognized Research Institutions or Semi- Government or autonomous bodies or statutory organizations OR equivalent scale in private organization. - Essential Skill Sets:- # Knowledge of Quality Management as per ISO/IEC 17025:2005, ISO 9001, Uncertainty Measurement, 6 Sigma, or other relevant QMS preferred. # Should have good oral & written communication skills. # Competency in hands-on experience in sophisticated machinery/equipment. # Experience of planning & execution of production/ job order schedule & customer dealing/satisfaction 2. Post Name:- Assistant Officer (F&A) - No of posts:- 1 - Upper age limit:- 32 years. Upper age relaxation as per Govt rules. - Salary:- VII CPC Pay Matrix Level 7 & Basic Pay: Rs.44900/- per month - Essential Qualification:- # Full-time first Class B.Com with full-time first class MBA (Finance)/Full-time first class M.Com from a recognized University with 03 years relevant post-qualification experience. # At least 3 years experience in pay matrix level-06 under the Central Government or State Governments or Union Territory Administrations or Public Sector Undertakings or Universities or Recognized Research Institutions or Semi- Government or autonomous bodies or statutory organizations OR equivalent scale in private organizations - Essential Skill Sets:- # Should possess sound skills in Government Financial Rules (GFR), Budgeting & Cost Accounting practices, and implementing electronic and modern methods of bookkeeping. # Finalization of financial budgets and accounts including internal/statutory audit # Skill in funds Management and arranging finance for purchases. Exposure to FERA guidelines and Computerized Accounting including Tally/ MIS/ ERP 3. Post Name:- Technical Assistant Gr. III (Tool Room/ Testing/ Processing/ Design (CAD-CAM-CAE)) - No of posts:- 20 - Upper age limit:- 32 years. Upper age relaxation as per Govt rules. - Salary:- VII CPC Pay Matrix Level 3 & Basic Pay: Rs.21700/- per month - Essential Qualification:- Dip. in Mech./ DPMT/ DPT/ PGDPTQC/ PGDPPT/ PDPMD with CAD/CAM; with 01-year relevant post-qualification experience. OR ITI (Fitter/ Turner/ Machinist) with 02 years of relevant post-qualification experience 4. Post Name:- Administrative Assistant Gr.III - No of posts:- 3 - Upper age limit:- 32 years. Upper age relaxation as per Govt rules. - Salary:- VII CPC Pay Matrix Level 3 & Basic Pay: Rs.21700/- per month - Essential Qualification:- # Graduation in any discipline from a recognized University with a minimum of 52% marks. # Minimum 02 years post qualification experience in handling Office Communications. # Speed in English typing @ 35 wpm or speed in Hindi Typing @ 30 wpm. # (35wpm and 30wpm correspond to 10500KDPH/ 9000KDPH on an average of 5 keys depressions for each word) # Proficiency in Computer operations including knowledge of MS Office, noting, and drafting. - Desirable: # Strong oral & written communication skills. # Experience in Administration, Establishment, Personnel, and Placement matters 5. Post Name:- Accounts Assistant Gr.III - No of posts:- 4 - Upper age limit:- 32 years. Upper age relaxation as per Govt rules. - Salary:- VII CPC Pay Matrix Level 3 & Basic Pay: Rs.21700/- per month - Essential Qualification:– Full-time first-class Graduation in Commerce with working knowledge in Tally Software with 02 years of relevant post-qualification experience. - Desirable: # Working knowledge of direct & indirect taxation. # Govt. purchase procedures # Working knowledge of PFMS software How to apply for CIPET Recruitment 2023: Assistant Officer, Technical Officer & Other Jobs? Applications strictly in the prescribed format along with necessary enclosures by Registered/ Speed Post should reach to “Director (Administration), CIPET Head Office, T.V.K. Industrial Estate, Guindy, Chennai – 600 032” latest by 29th May 2023. Applications received after the last date will not be accepted. The Candidate should mention “Advt. No. with the date” and the Name of the post applied for, on top of the envelope. Advertisement No:- CIPET/HO-AI/02/2023 (Date: 12.04.2023) Those who wish to apply are advised to go through the below official notification in detail before submitting applications. Download Application Form Click Here Download Official Notification Click Here Job Updates on Telegram Click Here Read the full article

[arktek3ddesign]

What Should You Know About CAD Design Service?

Wonderful buildings, such as the Buraj Al Dubai in the UAE or Sydney's Opera House in Australia, can be effectively erected with the assistance of high-tech CAD design services. While Cad Design Service can be utilized in a variety of industries, the most prevalent are architectural, engineering, and various other manufacturing designs. Obviously, architecture makes the greatest use of technology as design is so important.

Computer aided drafting services may include numerous methodological processes like designing, drafting, and finally the conversion technique. The stair that permits the development of artistic creations either using drafting or converting or transforming one's concept into software by developing the design in the computer from start is, of course, design. Drawing, on the other side, is the method of creating digital layouts that correspond to an existing paper design. It might be a hand drawn skyscraper or any other hand drawn sketches.

One of the most valued benefits of CAD or Bim Modelling Services is the ability to create multidimensional designs that are entirely flexible and customizable. Customization or modifications can be easily performed whenever and whenever problems are discovered. Conversion is the final phase of the CAD process. It is an essential step, especially when converting paper-based drawings into digital 3D model structures. It could also be used to transform photos from one type to another in order to improve the design plan.

Since everything is done online, computer aided drafting and design has profited greatly from technology. With special effects available in both 2D and 3d Motion Graphic models, it saves a significant amount of time throughout the design phase, allowing for more time to be allocated to other concentrations. Furthermore, everything runs much more smoothly, and labour expenses can be reduced because computers handle the most of the design aspects.

Computer aided drafting technique allows for the creation of both two-dimensional (2D) & three-dimensional (3D) environments. CAD has a solid track record in the commercial design, because to benefits like cost efficiency, durability, interoperability, and endurance. With such a well-known standing in the field of design, there are currently numerous organisations that specialise in designing work utilising CAD technology and delivering drawing services to customers all over the world.

Shipbuilding, commercial and architecture designs, automobile, prosthetics, and aerospace industries are just a few of the uses for CAD designs in the architecture area. Furthermore, the CAD software may generate animation 3D structures for compatible uses. This could be the fundamental reason why CAD has just been widely used in the production of technical manuals, films, and advertisements. To meet the rising demand for CAD services, supply is growing. Clients who require CAD services can now access low-cost architectural design services online.

Moreover, computer-aided drawing is the most fundamental component of product life cycle management (PLM), notably in the production of digital products (DPD). As a result, CAD is increasingly being used in computer assisted manufacturing (CAM), computer assisted engineering (CAE), numeric control (CNC), records management, analysis of finite elements (FEA), and perhaps some rendering applications.