Ansys

ANSYS is a user friendly virtual-prototyping and measured simulation framework. It offers an environment to perform structural, thermal, and electromagnetic analysis. John Swanson developed Ansys initially in 1970. Later in 1993, he sold his interest in the company to venture capitalists. Ansys means Analysis Systems. Earlier Ansys software was used to design products and semiconductors. Also, it creates simulations that test a product's durability, temperature distribution, fluid movements, and electromagnetic properties. Since its generation, Ansys is focused on Engineering Simulation. Ansys is evolving to meet the needs of the application. Ansys is a collection of different workbenches such as modelling, Structural, thermal, fluids Electromagnetics, etc. Hence Ansys is popularly known as Ansys workbench. To describe in short, Ansys focus on Geometry creation and, attaching existing geometry, setting up the finite element model, solving, and reviewing results. Fast and accurate analysis of flexible and rigid bodies and precise results of evaluation of physical events through the analysis of the mechanical system as a whole are possible with Ansys. Ansys works on the principle of Finite Element Analysis. Separating product into smaller components (Discretization) applies analysis parameters such as Constraints, Force, Torque, Pressure, etc. Meshing is used to divide the part into very small areas to perform a detailed analysis of each and every section of a product accurately.
The whole process is divided into 3 parts: Pre-processing, Solution, and Post-processing.

2. Advantages of Ansys:

• Data Exchange is smooth and easy, unaffected of a different domain, location, industry, etc.
• A more flexible and responsive information-based development process with appropriate user Interface, enabling modifications of design at later stages.
• Modernized processes, trusted analytics and high-quality products.
• Easy test setups, less physical prototypes lead to ease in understanding for a new user.
• Faster Return on Investment.

4. About Analysis and Finite element approach:
The analysis is the process of gaining an understanding of complex topics regarding any day to day life phenomenon by breaking it into smaller parts. That to say in general terms but in technical terms, the analysis was first used in logic and mathematics in the era even before of renowned scientist Aristotle (384–322 B.C). Analysis word comes from Ancient Greek ἀνάλυσις. {Análisis, “a breaking-up” & "an untying;” ana- is "up, throughout" and lisis "a loosening}.
Engineering analysis deals with applications based on scientific principles and methods to reveal the characteristics, properties, and state of a system, mechanism, structure or component undergoing study. Engineering analysis works by the method of discretization: it begins by separating the engineering design into the separate mechanisms of working or failure, analyzing or estimating each component of the operation or failure mechanism separately. After that it recombines, the components according to basic natural laws and physical properties. Each and every component undergoes an analysis post and prior to manufacturing. Engineering analysts look at needs to fulfill, structures, specifications, mechanisms, properties, systems, and dimensions. System failures and life cycles are major aspects that are broken down and studied by engineers. Due to advancements, there are many things that can be remotely analyzed such as satellites, rovers, drones, etc.

Structural analysis:
Structural analysis is the phenomenon to determine the effects of force and loads on physical structures and their components. Structures subject falls in this category to withstand loads such as bridges, buildings, soil, vehicles, furniture, strata, attire, prostheses, and biological tissue. Structural analysis applies theories and principlesfrom applied mechanics, mathematics and materials science to calculate a structure's deviation, internal forces, stresses, accelerations, stability & support reactions. The results obtained of the analysis are used to determine a structure's fitness for purpose, with or without the help of physical tests. Hence structural analysis is the key part of engineering design.
The basic terminology of a structure is that it is a body or system of connected parts used to support a load. Especially in civil engineering include important examples are buildings, bridges, and towers. In other branches of engineering manufacturing, some examples are pressure vessels, aircraft frames, tanks, mechanical systems, and electrical supporting structures, etc. So on a structure loads and stresses are the major factors that affect the form of deformation, deviation or displacement. Hence term structural analysis focuses on such parameters while analyzing any component. Structure designing takes into account Aesthetics, serviceability and safety while considering the environment and economic constraints.

Loads:
Once the structure fulfills the requirement of dimensions, it becomes necessary to determine the loads the structure must support. Therefore Structural design begins with specifying loads that act on the structure.
Structure engineering encounters two types of loads in the design.

• Dead load: Loads that consist of the weights of the various structural members and the weights of any objects that are permanently attached to the structure. E.g. roofing, walls, windows, columns, beams, girders, the floor slab, plumbing, Fixtures etc.
• Live loads: The second type of load varies in their magnitude and location. There are many different types of live loads like highway bridge loads, building loads, railroad bridge loads, wind loads, impact loads, snow loads, earthquake loads, and other natural loads, etc.

Analytical method:
Structural analysis performs a study over a body with the help of input data such as geometry, structural loads, support conditions, and material properties. After inputs, the simulation is stared in the software in the manner of actual working behaviour. The results obtained in analysis typically include support reactions, stresses and displacements. Condition of a failure is compared with this information obtained from analysis to clearly indicate the extent of failure. Advanced structural analysis may also examine stability, dynamic response and non-linear behaviour.
There are three approaches to the analysis:

• Mechanics of material approach (also known as strength of materials),
• Elasticity approach (special case related to continuum mechanics field), and
• Finite element approach.

The first two approaches make use of formulations which apply generally simple linear elastic models, leading to closed-form solutions, and often possible to solve by hands. On the other hand, the finite element approach is actually a numerical method for solving differential equations generated by theories of mechanics like elasticity theory and strength of materials. Finite-element method relies heavily on the processing power of computers and is more applicable to structures of complex arbitrary geometries.

Finite Element Methods:
The Finite Element Analysis (FEA) is analytical method which uses numerical method known as Finite element methods for solving problems of engineering and mathematical physics. FEM is useful for issues with complicated loadings, geometries and material properties where analytical solutions cannot be obtained.
FEM serves the purpose of:
Analytical:

• Analysis of stresses for beams, truss and other simple structures are carried out based on dramatic simplification and idealization; like
• Using this methods design is based on the calculation results of the idealized structure & a large safety factor ranging 1.5 to 3 given by experience and condition.
  Finite element methods uses following steps:
  Discretization of a continuum structure: Identify primary unknown quantity: Derivation of interpolation function: u = N1u1 + N2u2+ …. U= displacement u1= displacement for element 1 u2= displacement for element 2 …. So on N1= Shape function 1 N2= Shape function 2 Derivation of Element equation. The element equation relates to the induced primary unknown quantity in the analysis with the action. e.g: In a structural stress analysis, Force {F} is the action, Displacement {u} at nodes is the primary unknown and Stresses {σ} & Strains {ε} are secondary unknown. Solve for primary unknowns: The inverse matrix method is used to solve the primary unknown quantities {q} at all the nodes from the overall stiffness equations. [{q} = [K]-1{R}] Otherwise there is a Gaussian elimination method or its derivatives to solve nodal quantities {q} from the equation: ([K]{q} = {R}) Display and Interpretation of Results: Arrange results in tabular form. Graphical displays with contours and animation in software. Simulation: Simulation is imitating an operation or a process or a system that represents its operation or working parameters over time. Simulation acquires legitimate source data about the applicable determination of practices, key attributes and the utilization of disentangling approximations and presumptions inside the simulation, and constancy and validation of the recreation results. Computer simulation represents the dynamic responses of one system by using the reference parameters and model with the help of a computer. A computer in the form of programs uses mathematical description, or model, of a real system for simulation. A functional relationship is established within a real system with the model with mathematical equations. When the program runs, resulting in mathematical dynamics form an analog of the behavior of the real system and the results presented in the data form. With the use of computer-graphics a simulation can also take the form of an image that represents dynamic processes in an animated sequence.

Online Classes

SevenMentor has articulately made the program by bearing in mind the recent requirements and expectations of the business. The training won't only increase theoretical understanding but also improve them by imparting technical knowledge that is used in businesses. Our online ANSYS training has job placement support, online mentor training with technical evaluation situations, videos, and PDF's, online notes with internationally certified professionals that ensures you get the maximum from our online instruction.

By enrolling for online ANSYS classes from SevenMentor, you will easily explore the fundamentals of Ansys, Finite Element Analysis (FEA) and Finite Element Modeling (FEM). This online ANSYS course includes concepts like solutions, pre-processor, and post-processor modeling. Our online ANSYS certification course also explains the ways to conduct an advanced structural analysis. Our curriculum is designed by industry experts based on real-time scenarios.
Our trainers deliver live presentations of Theory, demonstration of features and vivid tasks of Ansys. Learn on a daily basis batches(weekdays) or weekends batches as per the stipulated schedule. Candidates are free to ask any doubts in this training which will help them to clear all doubts.

Job roles
Aerospace engineers
Automotive engineers
Manufacturing industries
Electronics engineers.
Aspirants willing to build their dream career in administrative fields.
Ansys Design Engineer
Ansys Product Engineer
Ansys Design Consultant
Ansys Software Developer
Ansys R & D Engineer

Salary
Average annual salary for ANSYS Engineer is INR 13.7 lakhs p.a

Course Eligibility

Basic Windows Computer Knowledge
Fundamentals of Mechanical Engineering
Basics of Engineering Drawing
Basic knowledge of 3D Modeling
Pursuing or Graduated with Diploma in Mechanical Engineering or BE/B.Tech or ME/M.Tech
Industry professionals looking to upgrade in Design domain

Our Trainers explains concepts in very basic and easy to understand language, so the students can learn in a very effective way. We provide students, complete freedom to explore the subject. We teach you concepts based on real-time examples. Our trainers help the candidates in completing their projects and even prepare them for interview questions and answers. Candidates can learn in our one to one coaching sessions and are free to ask any questions at any time.

• Certified Professionals with more than 8+ Years of Experience
• Trained more than 2000+ students in a year
• Strong Theoretical & Practical Knowledge in their domains
• Expert level Subject Knowledge and fully up-to-date on real-world industry applications

Compared to other training institutes we offer best Ansys workbench training to working professionals, Engineers and delegates. SevenMentor training has been in the training industry for many years. Our trainers are well acquainted with how and what to deliver to our attendees for their success as per their requirements. Ansys is an engineering simulation software which enables organizations to predict how their products operate in the real world. Ansys is Robust, efficient, adaptive and flexible for designing process. SevenMentor training institute has globally certified trainers to deliver full-fledged corporate Ansys training covering all the training modules from basics. ANSYS Mechanical provides solutions for many types of analyses including structural, thermal, modal, linear buckling and shape optimization studies.The latest ANSYS® release, 2019 R3, offers several new features our delegates might be interested in.
The use of ANSYS Mechanical course accelerates product development by providing rapid feedback on multiple design scenarios, which reduces the need for multiple prototypes and product testing iterations. SevenMentor training is a renowned institute which provides vocational training as well as ANSYS Training with emphasis on technical skills and knowledge for a particular job function. SevenMentor training provides vocational training in ANSYS design to help the student’s transition from academic learning to professional learning. SevenMentor is the best ANSYS classes in Pune which provides training in every domain of engineering.
We conduct corporate ANSYS courses and open house workshops on ANSYS for Engineering students and Professionals. The Curriculum of the ANSYS Training and Workshops in our institute is set in such a manner that students and professionals can gain more experience in the field they choose. Our training is expanding every day in terms of knowledge due to its expertise in the training field.