Cách 1: Sử dụng công cụ Attribute Extraction - Vào Tools chọn Attribute Extraction để xuất bảng thống kê ra định dạng excell - Chọn Create table or external file from scratch và làm lần lượt theo hướng dẫn như ở các hình bên dưới 

Cách 2: Sử dụng lisp cad - Dùng lisp TKX để phá khối (Gõ lệnh AP để đưa lisp vào) - Dùng Lisp c2e để xuất số liệu ra excel
Link tải lisp: https://dutoancic.vn/sanpham/phanmemchuyennghanh/Lisp%20Cad.rar
Cách 2: Sử dụng lisp cad và add ins của excel - Dùng lisp TKX để phá khối (Gõ lệnh AP để đưa lisp vào) - Clik vào add in trên excel để link số liệu từ file cad sang file excel
- Link tải add in excel: dutoancic.vn/sanpham/phanmemchuyennghanh/didg (2).rar
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A very specific topic!
In conclusion, the ANSYS Student version is not merely a marketing teaser — it is a pedagogical tool. It transforms abstract equations into visual, interactive feedback, empowering the next generation of simulation engineers. While a professional might need millions of cells to capture turbulence accurately, a student needs only a few thousand to learn why those cells matter. The Studentenversion delivers exactly that, and in doing so, plays a quiet but critical role in engineering education worldwide.
I notice you’ve asked for an essay on — which likely refers to the ANSYS Student version , a free, limited-feature release of the ANSYS engineering simulation software.
Learning to use Ansys is supported by a variety of resources. The Ansys Innovation Courses offer free, self-paced learning tracks that cover everything from basic physics principles to advanced simulation techniques. The Ansys Learning Forum also provides a space where students can ask questions, troubleshoot issues, and engage with a community of experts and peers. By mastering these tools, students significantly enhance their resumes and prepare themselves for careers in industries like aerospace, automotive, energy, and healthcare.
The ANSYS Student version provides undergraduate and graduate students with hands-on access to industry-standard simulation tools. Typically limited to models with fewer nodes/elements (e.g., 512,000 cells for fluids, 32,000 nodes for structures) and lacking certain advanced solvers or parallel processing, it nevertheless retains the core workflow: geometry import (via ANSYS SpaceClaim or DesignModeler), meshing, setup, solving, and post-processing. This direct experience is invaluable. A student can verify beam theory from a mechanics course by simulating a cantilevered load, or visualize vortex shedding behind a cylinder without needing a university cluster.
Below is a short essay tailored to that topic, written in English as requested. If you actually needed the essay in German (due to "Studentenversion") or a different angle, just let me know.
Source: Rahman, M. M., et al. "Evaluation of Ansys student version for structural analysis of buildings." Journal of Civil Engineering and Construction 5.1 (2020): 1-9.
However, the software is not without its challenges. The limitations on node counts mean that students cannot simulate large-scale, industrial-level problems. Additionally, the learning curve for ANSYS is steep; the sheer number of options and settings can be overwhelming for a beginner without proper guidance. Consequently, the effectiveness of the student version relies heavily on the quality of tutorials, documentation, and faculty support. Fortunately, ANSYS has invested in a comprehensive library of YouTube tutorials and academic resources to mitigate this issue.