Emerson Process Management

Numerical Analysis Lead

Steady heating of a solid wall [OpenFOAM]:

Static linear analysis of a regulator spring case [ANSYS]:

High speed flows - flow through regulators [CFX]:

Multi-phase flow (cavitation) [Fluent]:

Numerical Analysis Engineer

Elasto-plastic analysis of a large pressure regulator [ANSYS]:

Assessment of forces required to break parts [ANSYS]:

Nonlinear material model [Python]:

Heat transfer analysis [ANSYS]:

Flow performance coefficients for regulators [CFX, Python]:

12 Steps to Navier-Stokes equations [Python]:

Design Engineer

During my work as a design engineer I was mainly involve in one project: MR95/98. These compact, large capacity, direct operated pressure regulators were meant to replace two very successful products: Fisher 95 pressure regulator and Fisher 98 pressure relief valve. The idea was to create one body that will fit both products with minor changes.

When I arrived at Emerson, this project was undergoing for some time, but being at the phase of engineering concept, gave me the opportunity to learn and contribute in almost all stages of the product life.

I had a fast paced learning program and in only six months I was already working at full capacity. Some of the things I learned in this period were:

Geometric Dimensioning and Tolerances (ASME Y14.5M – 2009)
Team Center
NX7.5
New Product Development workflow (NPD 2.0)
Design calculations applied on pressure vessels
Oracle

I contributed in 3D and 2D drawings, design calculations, tolerance calculations, DFMEA and documentation. Most of the parts in TeamCenter were created by me in this period, because I was in charge with half of all drawings.

I have always proved to be meticulous, giving attention to details with patience; constantly trying to recognize patterns and formulate ways to optimize my work. These abilities were proved on product documentation (Engineering Master) task; the resulted documents were so good that they were used as reference for all the following documentations.