Mechanical Design Systems Engineer - Robotics and Automation (E3)

📍 Job Overview

Job Title: Mechanical Design Systems Engineer - Robotics and Automation (E3)

Company: Applied Materials

Location: Austin, TX, United States

Job Type: FULL_TIME

Category: Engineering / Manufacturing Operations

Date Posted: 2026-08-20

Experience Level: Mid-Level (4-8 years)

Remote Status: On-site

🚀 Role Summary

• This role is focused on the design, integration, and hands-on implementation of mechanical and electro-mechanical systems for automation within manufacturing environments, particularly within the semiconductor industry.

• The position requires a blend of CAD-based design (30-40% of time) and practical shop floor execution (60-70% of time), emphasizing a hands-on approach to building, prototyping, and troubleshooting automation solutions.

• The engineer will collaborate closely with Technical Program Managers and Engineering Managers to drive automation concepts from initial design through to full deployment, ensuring operational excellence and efficiency.

• Key responsibilities include designing custom fixturing, tooling, and material handling systems, integrating actuators, sensors, and pneumatics, and performing troubleshooting and root cause analysis on complex electro-mechanical systems.

📝 Enhancement Note: While the job title is "Mechanical Design Systems Engineer," the core responsibilities and required skills strongly align with a "Robotics and Automation Engineer" or "Manufacturing Automation Engineer" role, focusing on the physical systems that enable automated processes. The "E3" designation likely refers to an intermediate career level within Applied Materials.

📈 Primary Responsibilities

• Design custom fixturing, tooling, end-of-arm tooling (EOAT), and automation station layouts using Siemens NX and/or SolidWorks, creating detailed 3D models, assemblies, and engineering drawings for fabrication and procurement.

• Integrate electro-mechanical components such as actuators, sensors, pneumatics, and motion control systems into robust automation solutions.

• Prototype, assemble, and test mechanical systems and sub-assemblies on the shop floor, ensuring they meet design specifications and performance requirements.

• Support the installation and commissioning of automation equipment, actively participating in Factory Acceptance Testing (FAT) and Site Acceptance Testing (SAT).

• Troubleshoot mechanical and electro-mechanical issues that arise during integration and production ramp-up, performing thorough root cause analysis to prevent recurrence.

• Collaborate effectively with controls engineers and software developers to ensure seamless integration of mechanical systems with control logic and software interfaces.

• Work with external vendors and system integrators for component sourcing, custom fabrication, and equipment integration, managing relationships and ensuring quality.

• Maintain comprehensive documentation, including Bills of Materials (BOMs), assembly instructions, and design change records, adhering to engineering best practices.

• Identify and implement opportunities for continuous improvement in mechanical system reliability, manufacturability, and maintainability, applying Design for Manufacturability (DFM) and Design for Assembly (DFA) principles.

• Translate automation concepts and operational requirements into practical, buildable mechanical designs, considering fabrication methods like machining, sheet metal, and additive manufacturing.

📝 Enhancement Note: The responsibilities highlight a significant hands-on component, bridging the gap between theoretical design and practical implementation. This is crucial for roles in manufacturing automation where physical integration and troubleshooting are paramount.

🎓 Skills & Qualifications

Education: Bachelor's degree in Mechanical Engineering, Mechatronics, or a closely related engineering discipline.

Experience: 4–8 years of progressive experience in mechanical design, with a strong emphasis on hands-on system integration within automation, capital equipment, or manufacturing environments.

Required Skills:

• Proficiency in 3D modeling and assembly software, specifically Siemens NX and/or SolidWorks, for creating detailed designs and engineering drawings.

• Demonstrated experience in designing and building custom fixturing, tooling, or automation equipment from concept to completion.

• Hands-on experience with electro-mechanical systems, including the integration of actuators, sensors, linear motion components, and pneumatic systems.

• Ability to read, interpret, and create engineering drawings with appropriate Geometric Dimensioning and Tolerancing (GD&T).

• Strong analytical and troubleshooting skills, with a proven ability to perform root cause analysis on complex mechanical and electro-mechanical issues.

• Comfort and capability in working on the shop floor and in lab/prototype environments, including assembly and testing.

• Excellent communication and collaboration skills, essential for effective interaction with cross-functional teams, stakeholders, and external vendors.

• Familiarity with fabrication methods including machining, sheet metal, and additive manufacturing processes. Preferred Skills:

• Experience designing systems for cleanroom environments or a strong understanding of cleanroom compatibility requirements.

• Experience with robotic integration, including the design of End-of-Arm Tooling (EOAT) for collaborative or industrial robots.

• Exposure to controls engineering concepts (PLC, sensors, I/O) sufficient to collaborate effectively with controls engineers on system integration.

• Experience supporting Factory Acceptance Testing (FAT), Site Acceptance Testing (SAT), and equipment commissioning activities.

• Knowledge of component sourcing and vendor management for mechanical and electro-mechanical parts.

• Understanding of mechanical engineering fundamentals such as statics, dynamics, materials science, and mechanism design.

📝 Enhancement Note: The requirement for proficiency in both Siemens NX and SolidWorks suggests a need for flexibility or that the team uses a mix of tools. The emphasis on hands-on work and shop floor experience is a critical differentiator for this role, moving beyond pure design into implementation and validation.

📊 Process & Systems Portfolio Requirements

Portfolio Essentials:

• Showcase specific examples of custom fixturing, tooling, or automation equipment designed and built, demonstrating the full lifecycle from concept to functional prototype.

• Include detailed CAD models and engineering drawings (with GD&T) for at least one significant electro-mechanical system integration project.

• Present case studies detailing troubleshooting and root cause analysis efforts on complex mechanical or electro-mechanical failures, highlighting the problem-solving methodology and resolution.

• Demonstrate experience with BOM management and assembly documentation for fabricated parts or integrated systems. Process Documentation:

• Provide examples of workflow design and optimization for automation processes you have contributed to, illustrating how mechanical design supported efficiency gains.

• Showcase documentation related to system integration, including how mechanical components interfaced with controls and software, and how FAT/SAT processes were managed.

• Include evidence of applying DFM (Design for Manufacturability) and DFA (Design for Assembly) principles in your design work, with examples of how these improved production or assembly.

📝 Enhancement Note: Given the hands-on nature of the role, the portfolio should heavily emphasize practical application and problem-solving. Case studies detailing the integration and troubleshooting of electro-mechanical systems will be particularly valuable.

💵 Compensation & Benefits

Salary Range: $120,000 - $165,000 USD per year.

Benefits:

• Comprehensive health and wellbeing programs designed to support employees at work and at home.

• Opportunities for professional growth and career development within a leading global company.

• Eligibility for a bonus program, rewarding performance and contributions.

• Participation in a stock award program, offering potential for long-term equity growth.

• Relocation assistance may be available for qualified candidates.

Working Hours: Standard full-time hours, estimated at 40 hours per week, with potential for overtime depending on project demands.

📝 Enhancement Note: The salary range provided is specific to the Austin, TX location and reflects a mid-level engineering position within the semiconductor equipment manufacturing industry. The inclusion of bonus and stock awards indicates a total compensation package beyond base salary. Relocation assistance is also noted, which is common for roles requiring on-site presence in a specific tech hub.

🎯 Team & Company Context

🏢 Company Culture

Industry: Semiconductor Equipment Manufacturing and Materials Science. Applied Materials is a global leader providing crucial equipment for the fabrication of semiconductor chips and advanced displays, underpinning advancements in AI and next-generation electronics.

Company Size: Applied Materials is a large, established global corporation, employing tens of thousands of individuals worldwide. This size offers stability, extensive resources, and a broad scope of projects.

Founded: Founded in 1967, Applied Materials has a long history of innovation and leadership in the technology sector. This longevity suggests a stable environment with deep technical expertise and established processes.

Team Structure:

• The role is within the Automation Technology Group, suggesting a specialized team focused on developing and implementing automation solutions.

• The engineer will report to an Engineering Manager and work closely with a Technical Program Manager, indicating a project-driven structure with clear leadership.

• Cross-functional collaboration is a key aspect, involving interaction with controls engineers, software developers, manufacturing personnel, and potentially external vendors. Methodology:

• Data-driven decision-making and rigorous testing are implied, given the nature of semiconductor equipment and automation.

• Emphasis on practical implementation, with a significant portion of time dedicated to hands-on work on the shop floor, blending design with reality.

• Continuous improvement through Design for Manufacturability (DFM) and Design for Assembly (DFA) principles.

Company Website: https://www.appliedmaterials.com

📝 Enhancement Note: Applied Materials operates in a highly technical and demanding industry. The company culture likely values precision, innovation, and a commitment to quality. The Automation Technology Group is at the forefront of enhancing manufacturing efficiency and capabilities, making it a critical function within the organization.

📈 Career & Growth Analysis

Operations Career Level: This role is positioned as an Engineer 3 (E3), typically representing a mid-level engineer with 4-8 years of experience. It requires a solid foundation in mechanical design and system integration, with the ability to work independently on defined projects and contribute to team objectives. The role involves both design and hands-on implementation, offering a comprehensive experience in automation system development.

Reporting Structure: The Mechanical Design Systems Engineer will report to an Engineering Manager and work under the guidance of a Technical Program Manager. This structure provides direct mentorship and project oversight.

Operations Impact: The engineer's work directly impacts the efficiency, reliability, and cost-effectiveness of Applied Materials' manufacturing processes and the equipment they produce. By designing and implementing advanced automation solutions, they contribute to faster product development cycles, improved yield, and enhanced operational performance, ultimately supporting the company's leadership in the semiconductor industry.

Growth Opportunities:

• Specialization: Deepen expertise in specific areas of automation, robotics, or electro-mechanical system design relevant to semiconductor manufacturing.

• Leadership: Progress to senior engineering roles, Technical Program Management, or team leadership positions within the Automation Technology Group or other engineering departments.

• Skill Development: Gain exposure to controls engineering, software integration, and cleanroom manufacturing practices, broadening technical capabilities. Opportunities for internal training, external certifications, and participation in industry conferences are likely.

• Project Management: Develop project management skills by taking on more responsibility for project planning, execution, and stakeholder communication.

📝 Enhancement Note: The E3 level suggests a role where an engineer is expected to contribute significantly to projects but still has ample room for learning and skill development. The combination of design and hands-on work provides a well-rounded experience that can lead to various career paths within a large technology company like Applied Materials.

🌐 Work Environment

Office Type: The role is primarily onsite, requiring a mix of office-based design work and hands-on time in a shop floor or lab/prototype environment. This blended environment is typical for engineers involved in the development and implementation of physical systems.

Office Location(s): The position is located in Austin, TX. Applied Materials likely has dedicated facilities in this region for engineering, R&D, and manufacturing support.

Workspace Context:

• Collaborative Environment: The role necessitates close collaboration with engineering managers, program managers, controls engineers, and software developers, fostering a team-oriented workspace.

• Tools and Technology: Access to advanced CAD software (Siemens NX, SolidWorks), prototyping equipment, and potentially specialized testing apparatus relevant to automation and robotics.

• Team Interaction: Frequent interaction with team members is expected during design reviews, build processes, troubleshooting sessions, and project meetings.

Work Schedule: A standard 40-hour work week is expected, but project deadlines and critical integration phases may require flexible hours or occasional overtime. The role involves approximately 20% travel, likely for vendor coordination, site visits, or commissioning activities at customer locations or other Applied Materials facilities.

📝 Enhancement Note: The emphasis on both office and shop floor environments indicates a dynamic work setting. Candidates should be comfortable transitioning between conceptual design and practical, hands-on execution in a manufacturing or lab setting.

📄 Application & Portfolio Review Process

Interview Process:

• Initial Screening: A review of your resume and application to assess alignment with the required qualifications, particularly experience with CAD tools, electro-mechanical systems, and hands-on integration.

• Technical Interview(s): Expect in-depth discussions covering mechanical design principles, automation concepts, troubleshooting methodologies, and experience with specific tools like Siemens NX or SolidWorks. You may be asked to walk through a specific design project from your portfolio.

• Hands-on/Shop Floor Assessment: Potentially a practical exercise or a discussion about your comfort and experience working in a lab or shop floor environment, including assembly and testing scenarios.

• Cross-functional/Team Interview: An opportunity to meet with potential team members (e.g., controls engineers, program managers) to assess collaboration style, communication skills, and cultural fit within the Automation Technology Group.

• Final Interview: A discussion with the hiring manager or a senior leader to evaluate overall fit, career aspirations, and alignment with Applied Materials' strategic goals.

Portfolio Review Tips:

• Showcase Design-to-Build: Prioritize projects that demonstrate the entire process from initial CAD design through to physical build, integration, and testing. Highlight your specific contributions.

• Quantify Impact: Whenever possible, use metrics to demonstrate the success of your designs – e.g., improvements in cycle time, reduction in errors, increased reliability, cost savings.

• Detail Troubleshooting: For any projects involving troubleshooting, clearly outline the problem, your diagnostic process, the root cause identified, and the solution implemented. This showcases problem-solving acumen.

• Visuals are Key: Include high-quality images, videos, or 3D model renderings of your work. For drawings, ensure GD&T is legible and annotations are clear.

• Tailor to Role: Emphasize projects that closely align with designing custom fixturing, automation equipment, and integrating electro-mechanical components.

Challenge Preparation:

• System Design Scenario: Be prepared to discuss how you would approach designing a specific automation system given a set of requirements, considering feasibility, components, and integration challenges.

• Troubleshooting Case Study: Review common electro-mechanical failure modes and be ready to articulate a systematic approach to diagnosing and resolving issues under pressure.

• Collaboration Scenarios: Think about how you would communicate technical designs or issues to non-technical stakeholders or collaborate with controls engineers on system integration.

📝 Enhancement Note: The interview process is likely to be rigorous, focusing on both theoretical knowledge and practical, hands-on capability. A well-prepared portfolio that clearly illustrates the candidate's ability to design, build, and troubleshoot automation systems will be critical for success.

🛠 Tools & Technology Stack

Primary Tools:

• CAD Software: Siemens NX and/or SolidWorks (essential for 3D modeling, assemblies, and drawing creation).

• Prototyping & Fabrication Tools: Experience with machining, sheet metal fabrication, and potentially additive manufacturing (3D printing) for creating custom components.

• Electro-Mechanical Components: Familiarity with integrating actuators (motors, solenoids), sensors (proximity, optical, force), linear motion systems, and pneumatic components.

Analytics & Reporting:

• Design Analysis Tools: Potentially FEA (Finite Element Analysis) or CFD (Computational Fluid Dynamics) software for design validation, although not explicitly mentioned, this is common for complex mechanical design.

• Documentation Tools: Proficiency with BOM management software, PDM (Product Data Management) systems, and general office productivity suites for reports and instructions.

CRM & Automation:

• ERP Systems: Familiarity with Enterprise Resource Planning systems for component sourcing and Bill of Materials (BOM) management.

• Project Management Software: Tools like Jira, Asana, or MS Project may be used for tracking tasks and project progress.

📝 Enhancement Note: The core technical requirement is proficiency in Siemens NX and/or SolidWorks. Experience with the practical application of these tools in designing and integrating electro-mechanical automation systems is paramount. Understanding of common fabrication methods and component sourcing is also key.

👥 Team Culture & Values

Operations Values:

• Innovation & Advancement: A drive to push the boundaries of materials science and engineering to support AI and next-generation semiconductor technology.

• Customer Focus: Delivering solutions that meet high-quality standards and exceed customer expectations in the demanding semiconductor industry.

• Collaboration: Working effectively in cross-functional teams, sharing knowledge, and supporting colleagues to achieve common goals.

• Hands-on Execution: Valuing practical application, from design to shop floor implementation, ensuring that theoretical designs translate into functional, reliable systems.

• Continuous Improvement: A commitment to enhancing system reliability, manufacturability, and maintainability through process optimization and problem-solving.

Collaboration Style:

• Cross-Functional Integration: Close partnership with controls engineers, software developers, and program managers to ensure seamless system integration.

• Vendor Management: Professional and effective communication with external vendors for sourcing and fabrication to ensure timely delivery and quality.

• Knowledge Sharing: An environment where engineers share insights and best practices, particularly regarding design challenges, troubleshooting techniques, and automation strategies.

• Feedback Loop: Openness to feedback during design reviews and on-the-job, fostering an iterative design and implementation process.

📝 Enhancement Note: The culture likely emphasizes a strong engineering foundation combined with a pragmatic, hands-on approach to problem-solving. Collaboration is essential, given the complex, integrated nature of the automation systems being developed.

⚡ Challenges & Growth Opportunities

Challenges:

• Bridging Design and Reality: Effectively translating complex CAD designs into functional, reliable hardware on the shop floor, managing the inevitable discrepancies and integration issues.

• Integrating Diverse Systems: Ensuring seamless interaction between mechanical, electro-mechanical, controls, and software components in highly automated systems.

• Fast-Paced Environment: Adapting to evolving project requirements, tight deadlines, and the rapid pace of innovation in the semiconductor industry.

• Cleanroom Constraints: Designing and implementing systems that meet stringent cleanroom standards for particle control and material compatibility, if applicable to specific projects.

Learning & Development Opportunities:

• Robotics & Automation Expertise: Deepen knowledge in robot integration, EOAT design, and advanced automation techniques.

• Controls Systems Familiarity: Gain a better understanding of PLC programming, sensor integration, and control logic to improve collaboration with controls engineers.

• Cleanroom Technologies: Develop expertise in materials and design considerations for semiconductor manufacturing environments.

• Project Leadership: Opportunities to take on more responsibility for project scope, planning, and execution, potentially leading to project management roles.

• Industry Exposure: Participation in relevant industry conferences, workshops, and potentially training on new automation technologies.

📝 Enhancement Note: This role presents a significant opportunity for engineers who enjoy hands-on work and problem-solving in a dynamic manufacturing environment. The challenges are directly linked to the growth potential, offering a steep learning curve and valuable experience in a critical industry sector.

💡 Interview Preparation

Strategy Questions:

• "Describe a complex mechanical system you designed that involved significant electro-mechanical integration. What were the key challenges, and how did you overcome them?" (Focus on your design process, component selection, integration strategy, and troubleshooting.)

• "Walk me through your process for troubleshooting a failure in an automated system you designed or integrated. What steps do you take to identify the root cause?" (Highlight systematic problem-solving, diagnostic tools, and documentation.)

• "How do you ensure your mechanical designs are manufacturable and easily assembled? Can you provide an example of applying DFM or DFA principles?" (Demonstrate practical design considerations beyond aesthetics.)

• "Imagine you need to design a custom end-of-arm tooling (EOAT) for a specific robotic pick-and-place application. What factors would you consider?" (Showcase understanding of robotics, material handling, and application-specific requirements.) Company & Culture Questions:

• "What interests you about Applied Materials and our role in the semiconductor industry?" (Research the company's mission, recent innovations, and market position.)

• "How do you approach collaborating with controls engineers and software developers on integrated automation projects?" (Emphasize communication, understanding of interfaces, and shared goals.)

• "Describe a time you had to adapt your design approach due to shop floor feedback or constraints. How did you manage the situation?" (Illustrate flexibility and a willingness to learn from practical implementation.) Portfolio Presentation Strategy:

• Prioritize Hands-on Projects: Select 2-3 key projects that best showcase your ability to design, build, and troubleshoot electro-mechanical automation systems.

• Structure Your Case Studies: For each project, clearly define the problem/objective, your design approach, key technical details (CAD, components), the implementation/build process, any challenges faced, and the final outcome/impact.

• Visual Aids are Crucial: Use high-resolution photos, videos, or interactive 3D models of your designs and prototypes. Show your work in action if possible.

• Be Ready for Deep Dives: Prepare to answer detailed questions about your design choices, calculations, component selections, and troubleshooting steps.

• Highlight Collaboration: If applicable, mention how you collaborated with other disciplines or external vendors.

📝 Enhancement Note: Interviews for this role will likely test both theoretical knowledge and practical application. Be prepared to discuss specific design choices, fabrication methods, and your hands-on experience in integrating and troubleshooting complex systems.

📌 Application Steps

To apply for this Mechanical Design Systems Engineer position:

• Submit your application through the Applied Materials careers portal using the provided link.

• Tailor Your Resume: Highlight your experience with Siemens NX/SolidWorks, hands-on system integration, electro-mechanical systems, fixturing/tooling design, and troubleshooting. Quantify achievements where possible (e.g., "Reduced assembly time by X%," "Improved system uptime by Y%").

• Prepare Your Portfolio: Curate a selection of projects that demonstrate your design-to-build capabilities, particularly in automation and electro-mechanical systems. Include CAD examples, photos/videos of builds, and detailed case studies of troubleshooting.

• Research Applied Materials: Familiarize yourself with their products, their role in the semiconductor industry, and their commitment to innovation and automation. Understand the company's values and culture.

• Practice Interview Questions: Review common mechanical design, automation integration, and troubleshooting questions. Practice articulating your process and experience clearly, referencing your portfolio as needed.

⚠️ Important Notice: This enhanced job description includes AI-generated insights and operations industry-standard assumptions. All details should be verified directly with the hiring organization before making application decisions.