Ansys Additive Science

Ansys Additive Science

Ansys Additive Science

Ansys is a software suite of Ansys Inc.

Ansys Additive Science is a stand-alone solution specifically designed for scientists and engineers to provide an exploratory environment to determine the optimum process parameters for metal additive manufacturing machines and materials.

Ansys Additive Science helps users to ensure the achievement of the highest part integrity allowing to:

  • Determine optimum machine/material parameters
  • Control microstructure and material properties
  • Manufacture using new metal powders faster and more efficiently
  • Reduce the number of experiments needed to qualify components
  • Mitigate risk while accelerating innovation
  • Create process qualification procedures based on comparisons between simulation-predicted “correct” — and sensor-measured “actual” — machine behaviour

Ansys Additive Science enables to gain insight into the microscale meltpool phenomena and to study the effect of various process parameters by enabling prediction of:

  • Meltpool and Porosity
  • Thermal history
  • Thermal sensor measurements
  • Microstructure and material properties
  • Grain morphology
  • DOE via parametric studies
Request a free demo

Documentation

brochure

Ansys Additive Print
Product brochure

Scarica la versione italiana

Ansys Additive

brochure

Ansys Additive Suite
Product brochure

Scarica la versione italiana

Ansys Additive

brochure

Ansys Additive Suite
Product brochure

Download the english version

Ansys Additive

brochure

Progettazione e Simulazione del processo Additive Manufacturing per componenti metallici

Vantaggi e ritorno dell'investimento

Ottime potenzialità nella riprogettazione di parti di macchine e stampi per la produzione

Scarica il technical paper

Ansys Additive

Ask the Expert

Ask the expert

Send your technical questions to our experts!
Connect you with an EnginSoft expert who can provide a reliable answer to your technical question or recommend a proven solution.

Ask the expert Request a free demo

Insights

CASE STUDY

Tracked Vehicle

RecurDyn offers two Toolkits that are completely dedicated to tracked vehicles

In this example, a tracked bulldozer was simulated to evaluate the dynamic behavior of the vehicle on different terrains and with different obstacles. The model can also be used to calculate the loads operating on the vehicle’s structure..

recurdyn automotive mechanics multibody

NEWSROOM

Stay connected with us: news, analysis and trends from our experts.

Newsroom  

MEDIA CENTER

Scroll through our Media Center to view all the videos, video-tutorials and recorded webinars.

Media Center  

training courses

Scheduled courses ADDITIVE MANUFACTURING

EnginSoft organizes training courses on software technologies related to these manufacturing technologies, designed to ensure that our customers become effective in the shortest possible time.

training ansys-additivesuite

Find out more

Our competences in Ansys Additive Science

CASE STUDY

Fuel Injection

A multibody model was developed using RecurDyn to study the high-speed dynamic behavior of the injector during a typical work cycle

The model contains both rigid and flexible bodies: the pin was modelled using the proprietary Full Flex technology which includes a Finite Element body in the dynamic simulation.

recurdyn mbd-ansys automotive multibody

CASE STUDY

New solution for cost-effective electromagnetic analysis

EnginSoft’s contribution recognized in the F4E Technology Transfer Program

EnginSoft’s cost-effective solution was successfully created in collaboration with F4E’s expert teams after numerous years spent developing and testing tools, algorithms and customized interfaces in each phase of the Electromagnetic FEM analysis workflow.

energy ansys electronics

CASE STUDY

CFD Characterization of the Ventricular Assist Device HeartAssist 5® Through a Sliding Mesh Approach

Analysis to determine possible optimizations to enhance device safety and efficacy for long-term patient use

This technical article describes how high-end numerical Computational Fluid Dynamics (CFD) simulations were applied to mimic the realistic operating conditions of a Ventricular Assist Device (VADs) and analyze its hemodynamics in order to identify potential areas for optimization of the device’s performance, safety and efficacy.

ansys cfd biomechanics