- Proficient in AutoCad, Solidworks, SketchUp and PVSyst- Design PV solar systems in terms of panel tilt angels, azimuth orientation, feasibility to place on current roof structure (Retrofit) or replace current roof (BIPV) or placed on ground (Ballast systems)- Determine feasibility of system location taking into account local weather at site, shading possibilities, efficiencies of panels & inverters required.- Determine appropriate cable sizings, mounting structures, electronic configurations of system- Liaise with different departments on every project, from Sales dept to Licensing dept (SEDA, TNB, etc)- Research and development on ways to improve design in terms of capacity, efficiency and cost.

Inspect, test and sample finished goods for defects and deviations from specifications. Controller of all technical and administration documents in the company.- Trained with ISO 22000 specifications- Prepared documents and workplace for ISO audit, Halal & Kosher audit- Managed welfare of other employees in regards to specific job scope training, payroll, etc- Managed expenses of company in regards to finance records, issuance of payments, etc- Part of the management for procurement and external communication for the company- Customer service- Product Service (administration and technical related issues)

"This work is a continuation of my Honours thesis at UTAS. At the end of my employment I was invited to present my findings to Hydro Tasmania"Rising applications of renewable energy sources in Australia causes intermittent loadings and outputs of the National Energy Market (NEM). Hydro turbines are increasingly being used to stabilise the energy grid, often at off-design conditions.Problem statement: Irregular loading and pressures poses a high risk of stress/fatigue in the runner structure and potentially shorten the life span of the hydro turbines being used to accommodate Australia's energy demand.Solution: Numerical modelling of the off-design loading of a Francis turbine runner allowed me to analyse the stress effect fluid flow has on the turbine blades and main body.Developing a CAD model for a turbine runner prototype to scale, and evaluating its performances at off-design operating conditions.Rare cases of cavitation are also observed.Method used:-Produce a 3D model of the fluid domain of the Francis turbine runner in Autodesk Inventor.-Set-up a steady state model in ANSYS using a frozen-rotor approach.-Set up a transient state model in ANSYS using a transient rotor-stator approach-Finite Element Analysis (FEA) was applied on the turbine's main body and used to pinpoint the locations that are subjected to stress and fatigue under off-design loadings.-optimum mesh type, pattern and size had to be determined beforehand to identify the ideal mesh to be applied onto the turbine's body-A Fluid-Structure-Interaction (FSI) model was also established on the solid model to evaluate pressure distribution and deformities experienced by the turbine runner.Note: SST Turbulence model was used, due to its versatility in either region of the boundary layer (comb of k-w and k-e models)Softwares used: Autodesk Inventor, Solidworks, Ansys 2.0

Part of the Boeing 787-8 and the Boeing 787-9 team as an intern. Daily tasks includeinterpreting engineering drawings from Boeing and producing concise drawings fortechnicians, responsible for communication with suppliers, reviewing laser shootreports and other miscellaneous improvement activities. Projects include designing atool aid and executing a rivet type tracking system on panels.