Unleash Your Potential with Cutting-Edge Simulations
Simulation Lab ® is a state-of-the-art scientific research and development center that is unique in the world. It is an independent and open facility that offers advanced technology and resources for conducting cutting-edge research and development projects. The lab is a partnership between ANSYS Research-USA and Zoho-India, two of the most renowned companies in the software industry. It is sponsored by Nvidia-USA, a leading company in the field of graphics processing units (GPUs) and artificial intelligence (AI).
More than +4600 students enrolled in internship
From +94 international and +2,156 national universities
Working online from +30 countries around the world
World's first 24/7 Active Research Center
8 Years of unparallel research and innovation
Explore Research, concepts and designs
Join us on an exciting journey of discovery as we explore innovative concepts, cutting-edge designs, and groundbreaking research to create new products. With a focus on concept design, computational analysis (CAD & CAE), and research optimization, we've developed over 5 patented products, tested over 50 prototypes, and have more than 10 currently in the optimization stage. Don't miss out on being a part of our quest for innovation!
Latest Updates
Automobile Research | Electric Vehicles | Product Concept R04 | Battery Thermal Management System (BTMS) | Stage XXXVII Achieved | R&D September 2025
Based on the current study’s analysis, it is evident that nanofluids not only differ in overall efficiency but also in how steadily they manage transitions during C (Thermo-Electric Cooler Temperature) fluctuations. Water+Cu demonstrates strong adaptability, maintaining stable performance across both sharp and mild cooling shifts, whereas Water+Au, though generally efficient, tends to stabilize more slowly, hinting at nanoparticle clustering effects. Water+Ag shows a tendency for quick initial cooling followed by small oscillations, which suggests uneven thermal dispersion under fluctuating loads. In contrast, Water+Al₂O₃ provides a slower but smoother cooling response, making it advantageous in systems where avoiding sudden temperature shocks is critical. A finer detail often overlooked is that water alone not only lags in efficiency but also amplifies temperature swings, creating thermal stress on the system. These subtle differences highlight that beyond conductivity, nanoparticle stability and response time are key in selecting nanofluids for dynamic thermal management.
22 September 2025
Aeronautics Research | Subsonic Aircraft | Product Concept R03 | Feature on Wing Flap to Enhance Aerodynamic Efficiency | Stage LVI Achieved | R&D September 2025
The analysis reveals that the feature with a full aerodynamic tail shows a steeper efficiency gradient, achieving high values initially but losing performance more rapidly as flap deflection increases, which suggests it is highly effective but sensitive to operational limits. The partial aerodynamic tail demonstrates a gentler efficiency slope, indicating a more balanced response where performance is maintained across a wider range of conditions without sharp drops. The fillet edge tail, despite consistently lower efficiency, exhibits the most uniform trend, with nearly linear changes that imply predictable flow characteristics. These subtle variations emphasize that while maximum efficiency is important, the rate of change and stability of aerodynamic response across flap angles provide equally valuable insights for practical applications.
14 September 2025
Automobile Research | Electric Vehicles | Product Concept R04 | Battery Thermal Management System (BTMS) | Stage XXXVI Achieved | R&D August 2025
Based on the current study’s analysis, it is observed that nanofluid performance depends not only on thermal conductivity but also on particle dispersion and transient response. Water+CuO quickly disperses heat during rapid temperature changes, while Water+Au, though effective at moderate temperatures, shows slight delays in stabilization. Water+Ag cools fast initially but has minor fluctuations during settling, indicating uneven heat transfer. Water+Al₂O₃ provides smoother cooling, suitable for systems sensitive to thermal shocks. Water alone shows sharper temperature variations due to lack of particle buffering. These findings highlight the importance of dispersion stability and transient behavior in selecting nanofluids for efficient cooling.
25 August 2025
Aeronautics Research | Subsonic Aircraft | Product Concept R03 | Feature on Wing Flap to Enhance Aerodynamic Efficiency | Stage LV Achieved | R&D August 2025
The analysis reveals that while the feature with a full aerodynamic tail delivers the highest efficiency at lower flap angles, its performance becomes increasingly sensitive as deflection grows, suggesting a trade-off between aerodynamic gains and stability. The partial aerodynamic tail, on the other hand, shows moderate efficiency with slight variations, indicating it may better withstand small disturbances or changes in flow without dramatic performance loss. Interestingly, the fillet edge tail, though less efficient overall, maintains a steady decline across flap angles, hinting at greater resilience in turbulent conditions. These observations highlight that design choices should consider not just peak efficiency but also how each feature geometry responds to real-world variations, where robustness and gradual performance changes can be as critical as maximum aerodynamic advantage.
12 August 2025
Research Insights
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Elevate your exploration with our curated resource hub—designed to empower your research journey. From visual insights and raw findings to detailed logs and chronological analyses, these resources provide everything you need to dive deeper, track progress, and engage with groundbreaking research.
Ways to Join Us
You can connect with us in multiple ways—whether it’s by gaining hands-on experience through our Internship Program, partnering as an Event Sponsor to support student-driven engineering competitions, or establishing long-term collaborations with Special MoUs tailored for colleges and institutions. Each pathway is designed to create value, foster innovation, and build meaningful connections within the research and engineering community.
MoU – Research Incubation Program
Colleges and institutions aiming to formalize collaboration can benefit from our MoUs that establish long-term, mutually beneficial partnerships. These agreements enable selected students to participate in Simulation Lab’s Research Incubation Program — a free, two-month research experience guided by our CAE Engineers. Through structured mentorship and simulation-based learning, students gain practical research exposure, technical insight, and opportunities for academic engagement and campus representation.
Be part of something BIGGER
An internship here isn’t just about completing tasks—it’s about stepping into a culture of innovation, collaboration, and forward thinking. It’s a space where ideas turn into impact, research meets real-world application, and every contribution helps push the boundaries of possibility. More than an internship, it’s your entry into a community that thrives on curiosity, creativity, and the drive to shape the future.
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