Team Lead

Roles and Responsibilities:

  Collaborate with offshore and global teams to understand project scope, including analysis domain, boundary conditions, material models, and types of analysis.

  Act as a key coordinator across multiple groups such as Design, Structures and Aerodynamics, and to gather project-specific inputs.

  Manage multiple projects independently, demonstrating strong prioritization and time management skills.

  Review and interpret technical presentations and analysis results, and effectively communicate findings to customers.

  Lead and support Design and Technical Discipline reviews.

  Ensure 100% quality and timely delivery, especially in handling NCs, QNs, and OTCs.

  Conduct project review meetings to share lessons learned and best practices to enhance team performance and quality.

  Provide alternative solutions for field issues and support root cause analysis.

  Drive process improvements through the development of automation tools.

  Perform design modifications and validate them using Finite Element Analysis (FEA).

  Exhibit strong technical, project management, interpersonal, and problem-solving skills.

Mandatory skills:

  6 years of experience in stress analysis of mechanical aerospace components using ANSYS APDL/Workbench, HyperMesh, or OptiStruct.

  Proficient in F&DT and lifing processes for structural components.

  Experience handling NCs, QNs, and OTCs.

  Solid understanding of FEA theory, solid mechanics, machine design, and fatigue analysis.

  Skilled in 2D & 3D finite element modeling (Hexahedral & Tetrahedral elements).

  Expertise in linear and non-linear static stress analysis, modal, harmonic, and transient dynamic analysis using ANSYS tools.

  Knowledge of strength, stability, durability, and damage tolerance analysis.

  Ability to develop/modify APDL macros and build/update FE models in HyperMesh.

Desired Skills:

  Familiarity with structural component lifing tools.

  Experience in scripting languages such as MATLAB, VB, TCL/Tk, or Python.

  Knowledge of hand calculations, engineering standards, and design codes.

  Basic proficiency in CAD tools.

Roles and Responsibilities: Collaborate with offshore and global teams to understand project scope, including analysis domain, boundary conditions, material models, and types of analysis. Act as a key coordinator across multiple groups such as Design, Structures and Aerodynamics, and to gather project-specific inputs. Manage multiple projects independently, demonstrating strong prioritization and time management skills. Review and interpret technical presentations and analysis results, and effectively communicate findings to customers. Lead and support Design and Technical Discipline reviews. Ensure 100% quality and timely delivery, especially in handling NCs, QNs, and OTCs. Conduct project review meetings to share lessons learned and best practices to enhance team performance and quality. Provide alternative solutions for field issues and support root cause analysis. Drive process improvements through the development of automation tools. Perform design modifications and validate them using Finite Element Analysis (FEA). Exhibit strong technical, project management, interpersonal, and problem-solving skills. Mandatory skills: 6 years of experience in stress analysis of mechanical aerospace components using ANSYS APDL/Workbench, HyperMesh, or OptiStruct. Proficient in F&DT and lifing processes for structural components. Experience handling NCs, QNs, and OTCs. Solid understanding of FEA theory, solid mechanics, machine design, and fatigue analysis. Skilled in 2D & 3D finite element modeling (Hexahedral & Tetrahedral elements). Expertise in linear and non-linear static stress analysis, modal, harmonic, and transient dynamic analysis using ANSYS tools. Knowledge of strength, stability, durability, and damage tolerance analysis. Ability to develop/modify APDL macros and build/update FE models in HyperMesh. Desired Skills: Familiarity with structural component lifing tools. Experience in scripting languages such as MATLAB, VB, TCL/Tk, or Python. Knowledge of hand calculations, engineering standards, and design codes. Basic proficiency in CAD tools.