Graduate Mechanical Engineer

Roles and responsibilities

• An Engineering Graduate in Mechanical Engineering typically refers to someone who has recently completed a Bachelor's degree in Mechanical Engineering and is starting their career in the field. This role requires a solid foundation in engineering principles, mathematics, physics, and materials science, as well as hands-on experience in design, testing, and system optimization. Mechanical engineers work in industries such as automotive, aerospace, manufacturing, energy, and construction, developing, designing, and improving mechanical systems and processes.

• Engage in field assignments, projects, and tasks directly related to field service engineering, allowing you to develop leadership and communication skills within a real-world engineering environment.
• Partner with leaders and interact with various business functions to deliver assigned tasks, gaining a comprehensive understanding of Siemens Energy's operations.
• Assist the Siemens Energy Services & Operations team in daily activities and deliverables, contributing to the efficiency and success of ongoing projects.
  
  

What You Bring

• Bachelor’s degree in Engineering from an accredited university, preferably in electrical or mechanical engineering.
• Strong proficiency in Microsoft Office applications.
• Active listener with excellent communication skills in English
• Previous internship or relevant experience in a similar field is advantageous, providing you with a foundational understanding of engineering principles and practices.
• Ability to communicate effectively with cross-functional teams, demonstrating a collaborative spirit and a willingness to learn and grow within a dynamic environment.

Desired candidate profile

1. Mechanical Design and CAD Software

• Computer-Aided Design (CAD): Proficiency in CAD software (such as AutoCAD, SolidWorks, CATIA, or Creo) to create detailed designs, technical drawings, and simulations for mechanical systems.
• 3D modeling: Ability to model and visualize components and assemblies in 3D, facilitating a better understanding of complex mechanical systems.
• Design for manufacturability: Ensuring designs are practical and cost-effective to manufacture, considering factors like material selection, tolerance, and ease of production.
• Finite Element Analysis (FEA): Basic knowledge of FEA tools (such as ANSYS or Abaqus) to simulate and analyze stress, thermal, and dynamic behavior of components.

2. Thermodynamics and Heat Transfer

• Thermodynamics: Understanding the principles of thermodynamics, including laws of energy conservation, entropy, and fluid properties, which are essential for energy systems and heat engines.
• Heat transfer: Knowledge of heat transfer methods (conduction, convection, radiation) and their application in designing cooling systems, heat exchangers, or thermal management solutions.
• Energy systems: Familiarity with the principles behind power generation, HVAC systems, and energy efficiency techniques in mechanical designs.

3. Mechanics and Structural Analysis

• Statics and dynamics: A solid understanding of the principles of statics (forces, moments, equilibrium) and dynamics (motion, force interactions, vibrations) applied to mechanical systems.
• Stress and strain analysis: Ability to analyze materials under stress and determine their strength, elasticity, and behavior under different load conditions.
• Vibration analysis: Basic knowledge of vibration theory to assess and mitigate issues related to mechanical resonances and damping in mechanical components or systems.

4. Materials Science and Selection

• Material properties: Understanding of material properties (such as strength, ductility, hardness, and fatigue resistance) and how to select the right materials for mechanical designs.
• Manufacturing processes: Familiarity with various manufacturing processes (e.g., casting, machining, welding, additive manufacturing) and how they affect material choice and design considerations.
• Corrosion and wear resistance: Knowledge of how materials degrade over time and how to select or treat materials to withstand corrosion and wear in harsh environments.

5. Manufacturing and Production Engineering

• Manufacturing processes: Understanding of different manufacturing techniques, including machining, injection molding, 3D printing, and CNC operations, and how to design parts for manufacturability.
• Production optimization: Assisting in optimizing production processes to increase efficiency, reduce costs, and improve product quality through process control and automation.
• Quality control: Familiarity with quality management systems, including tools like Six Sigma, Lean manufacturing, and Statistical Process Control (SPC) to ensure high product quality.
• Assembly line design: Knowledge of designing efficient assembly processes and layouts to improve productivity and reduce errors or waste.