#ansysworkbench

The simulation tools have become a necessary need in the dynamic world of mechanical engineering. ANSYS Workbench is one of the most powerful platforms for conducting simulations. Being a student or a professional who wants to upgrade their skills to the next level, taking an ANSYS Workbench course online can enhance your career exponentially.

In this blog we are going to know the best 5 platforms that offer ANSYS Workbench software training for beginners and professionals.

What is ANSYS Workbench?

ANSYS Workbench is a simulation environment software package produced by ANSYS Inc. It integrates multiple analysis applications into a user-friendly curriculum, making it easier to perform complex engineering simulations.

It is suitable for engineers in the automotive, aerospace, civil, and manufacturing sectors, and is also of high value to students joining these disciplines.

Top 5 Platforms that Offer Ansys Workbench Courses

PIGSO LEARNING

PIGSO LEARNING is an online platform that provides real-time training offered by experts in the industry so that mechanical engineers, researchers, and students can get hands-on learning on ANSYS Workbench.

In this intensive training course, theory and practice are blended together to allow the learner to effectively create, integrate, and understand 3D CAD drawing models and perform different simulation analyses of heat, vibration, deformation, fatigue, and more in one unified application. 

You will be taught how to make and mesh a 3D model, how to assign materials, how to apply loads and boundary conditions, and how to run several types of analyses, e.g., static, modal, thermal, nonlinear analysis, and structural analysis, using real-life examples in a stepwise manner.

Duration: 4-5 weeks

Mode: Online

Key Features......

In Micro-Electro-Mechanical Systems  (MEMS)  technology, there  is  an important  interest  in  the characterization of devices using dynamic analysis, which is a technique to determine the dynamic behavior of a structure or component, involving time, inertia and the possibly damping of the structure. This  paper is  focused  on  the  analysis and  simulation  of  an  improved dual  microgripper  and its components: microcantilever  and  chevron. In  addition,  a movement  amplifier  based on  an arrangement of beams was also designed in order to improve the opening  of each  jaw of the top gripper. Dual microgrippers are designed on silicon and implemented using Professional Autodesk Inventor. Top gripper is initially closed, while the down one is initially open. The analytical response of the microgripper  components was acquired with Steady-State Thermal, Static Structural, and Modal modules of Ansys Workbench Software. The dynamic  behavior,  resonance frequencies  for  chevron actuator  and  dual microgrippers  are presented.  Simulation results  show  the modal  shapes  of allanalyzed  devices,  determining their respective modal frequencies. A comparison between initial and improved dual  microgrippers was also  performed. About the top grippers, the increment showed by the improved microgripper in total displacement is of 24.4%, and the temperature distribution only showed a little reduction (7%). For the case of the down gripper, the total displacement decrease in approximately 50%, force remains without change and its temperature shows a little decrement (7.2%). In both dual microgrippers, the biggest temperature value resides in the chevron inside, at the top part of its shuttle, with 162.76°C. Supply voltage was considered from 0 to 7 V. This swept could be useful to determine  the  more appropriate  voltage  level to  obtain  adesirable response.  In  each analyzed device, their corresponding modal shapes, using FEA, were determined. The modal shapes analysis allow to understand the performance of the analyzed devices, at the correspondent frequency. From the comparison between initial and improved dual microgrippers, implemented with Silicon, special attention was given to the top grippers. Total displacement showed by the improved microgripper has a maximum  value  of 0.86  μm.  Third natural  frequency  remains almost  without  change (4.7%), increasing at 70.38 kHz and the temperature distribution only showed a little reduction (7%, maximum temperature was  of 131.49°C), which is better for practical applications. For the case of the down grippers of improved dual microgripper, the total displacement decrease in approximately 50% (with a value of 0.18 μm), force remains without change (3.8 μN) and its temperature decreases (7.2%), at 162.77°C, which is also better for practical applications. These parameters values of the improved dual microgripper are illustrative for possible applications.

Author(s) Details

Margarita Tecpoyotl Torres

Centro de Investigación en Ingeniería y Ciencias Aplicadas, IICBA-CIICAp-UAEM, Mexico.

Pedro Vargas Chablé

Doctorado en Ingeniería y Ciencias Aplicadas, IICBA-CIICAp-UAEM, Mexico.

Alejandra Ocampo Diaz

Doctorado en Ingeniería y Ciencias Aplicadas, IICBA-CIICAp-UAEM, Mexico.

Ramon Cabello Ruiz

Universidad Tecnológica Emiliano Zapata del Estado de Morelos (UTEZ), Mexico.

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