重磅升级:维谷AI推出技术路线图6.2(重点支持SCI/SSCI期刊配图)

Nano Banana效果确实让人惊艳。

维谷AI推出技术路线图6.1模块，专注SCI/SSCI期刊配图。

如何访问

访问地址：https://chat.3dgu.com，

路径一：框图6.0模块-->输入相关信息。

路径二：https://ai.3dgu.com/web/#/roadmap6，需要会员扫码登录。

有任何问题、建议欢迎到公众号维谷电子留言交流

案例演示

提示词

帮我画一个 DNA 双螺旋分子结构图，标明碱基对、磷酸-脱氧核糖骨架，用彩色线条区分碱基类型。

生成效果

提示词

Finite Element Analysis (FEA) was conducted to simulate the mechanical behavior of the coupling under atmospheric air conditions. A 3D CAD model representing the full assembly was developed and meshed using second-order tetrahedral elements to ensure convergence and solution accuracy. Boundary conditions replicated real-world mounting scenarios: the shaft was fixed at one end while torque was applied at the other, with contact elements defined between mating components.

Finite Element Analysis (FEA) is employed to assess the structural integrity of a rigid flange coupling, specifically evaluating the mechanical behavior of diverse material combinations. A three-dimensional (3D) geometric model of the coupling, as depicted in Figure 2a, serves as the basis for the analysis.

Imposition of boundary conditions, as outlined in Table 8, facilitates the generation of a discretized mesh, illustrated in Figure 2b. Subsequent simulation of operational loading conditions enables the determination of stress distribution patterns, identification of stress concentration regions, and quantification of deformation magnitudes under applied torsional loads.

生成效果

（原文网址：https://www.sciepublish.com/article/pii/668）

提示词

Alzheimer's disease (AD) is a common form of dementia characterized by memory loss, cognitive and linguistic abilities declining and self-care capabilities diminishment. With the aging population globally, AD poses a significant threat to public health. Current treatments for AD aim to alleviate symptoms and slow down disease progression, but due to the limited understanding of underlying disease mechanisms, AD is still impossible to be cured yet. In recent years, there has been an exponential growth in exosome-related research because of their excellent biocompatibility ability, loading capacity and cellular internalization, making exosome to be one of the hotspots and a promising strategy in AD therapy research. This comprehensive review systematically explores the potential roles of various exosome-based nanotherapeutic strategy in AD treatment, with a particular focus on their specific biological mechanisms of action. Firstly, we elaborated on the pathological mechanisms of AD formation as well as the mechanisms related to the formation, secretion and function of exosome. Additionally, we highlighted the research progress in the development of exosome-based nanotherapeutic strategies for AD treatment and their corresponding biological mechanisms. Furthermore, we delved into the challenges and opportunities these strategies facing in clinical application. Looking forward to future research directions and trends, our review aims to provide a more comprehensive understanding and guidance with the application of exosome in AD treatment. Exosome-based nanotherapeutic strategies, as a new therapeutic approach, have opened up new possibilities for the treatment of AD and brought new light to patients.

生成效果