Systems Principal Designer I

📍 Job Overview

Job Title: Systems Principal Designer I

Company: Orthosoft Inc.

Location: Montreal, Quebec, Canada

Job Type: OTHER

Category: Systems Engineering / Technical Leadership (Medical Devices)

Date Posted: 2026-07-30

Experience Level: 10+ Years

Remote Status: Hybrid (Minimum 3 days in office)

🚀 Role Summary

• Drive technical leadership and discipline advancement for New Product Introduction (NPI) projects focused on computer-assisted surgical and robotic systems.

• Shape system design strategy, technical standards, architecture, and ensure cross-project consistency and quality system effectiveness.

• Serve as a recognized technical leader guiding complex system architecture, requirements strategy, risk management, and verification & validation strategies.

• Remain hands-on with robotic system testing, integration, and troubleshooting while influencing long-term engineering practices.

• Mentor junior engineers, advance the System Design craft, and foster a collaborative environment for problem-solving and innovation.

📝 Enhancement Note: While the title "Systems Principal Designer I" and the company (Orthosoft Inc., affiliated with Zimmer Biomet) strongly suggest a role within the medical device industry, particularly in surgical robotics, the provided description has been enhanced to specifically target operations and GTM professionals by framing the responsibilities and requirements through an operations lens. This includes emphasizing process optimization, system integration, cross-functional collaboration, and the impact of design decisions on GTM strategies and operational efficiency within a regulated environment.

📈 Primary Responsibilities

• Lead complex system design activities for NPI projects, encompassing user needs strategy, requirements definition, architecture, risk management, Verification & Validation (V&V) strategy, usability engineering, Design Changes, and Design History File (DHF) documentation.

• Influence user needs strategy and ensure end-to-end traceability and system-level alignment from user needs and clinical workflow inputs through requirements, design inputs, verification, validation, and risk controls, directly impacting product development lifecycles and operational readiness.

• Lead architecture definition, interface strategy, system trade studies, integration strategy, and critical technical decision records for complex products or project scopes, ensuring alignment with broader GTM and operational deployment plans.

• Lead technical interactions during surgeon evaluations, customer feedback assessments, usability studies, system demonstrations, and clinical evaluations, providing critical insights for product-market fit and operational support readiness.

• Lead or support hands-on robotic system testing, integration, troubleshooting, root cause investigations, usability evaluations, and verification activities, ensuring the reliability and efficiency of deployed systems.

• Lead the evaluation and system-level integration of supplier components, third-party technologies, externally developed software, or subsystems, ensuring seamless integration into the overall product ecosystem and operational workflows.

• Coordinate technical activities with cross-functional stakeholders, including R&D, Quality, Manufacturing, and Marketing, serving as an independent reviewer for significant deliverables to ensure alignment and operational feasibility.

• Lead or own quality-related technical investigations, including issue evaluations, complaints, non-conformities, and Corrective and Preventive Actions (CAPAs), directly impacting product quality and operational compliance.

• Improve procedures, design controls, engineering documentation, DHF quality, audit readiness, and decision rationale practices to enhance operational efficiency and regulatory adherence.

• Promote compliance with applicable procedures, regulatory expectations, and sound engineering judgment, ensuring robust operational processes.

• Drive project outcomes with minimal supervision while managing priorities, dependencies, technical risks, and stakeholder expectations, crucial for successful project execution and GTM timelines.

• Resolve ambiguity, remove impediments, and support Agile/SAFe-aligned planning and continuous improvement initiatives to streamline development and operational processes.

• Establish technical rationale, lead trade studies, evaluate competing solutions, and document system-level decisions using sound systems engineering principles, ensuring technically sound and operationally viable product designs.

• Mentor and coach lower-level Systems Designers on System Design practices, tools, and procedures, building organizational capability and operational expertise.

• Advance the System Design craft through best practices, training, lessons learned, and process improvements, contributing to a culture of operational excellence.

• Influence practices across multiple project teams and support the harmonization of System Design methods where appropriate, ensuring consistent operational standards.

• Model clear communication, accountability, constructive challenge, knowledge sharing, and respectful collaboration, fostering an effective cross-functional and operational working environment.

📝 Enhancement Note: The core responsibilities have been reframed to emphasize the operational impact of system design, particularly in a regulated medical device environment. This includes highlighting the alignment of design decisions with GTM strategy, manufacturing readiness, quality compliance, and the efficiency of product lifecycles. Keywords like "operational readiness," "GTM timelines," "manufacturing," and "compliance" have been integrated.

🎓 Skills & Qualifications

Education:

• Bachelor's degree in engineering, science, biomedical engineering, computer engineering, mechanical engineering, electrical engineering, or a related technical field. A degree in Biomedical Engineering is highly preferred.

• Graduate studies in a related field are preferred, indicating a strong theoretical and practical foundation. Experience:

• Minimum of 7 years of relevant engineering experience.

• Demonstrated technical leadership across multiple complex programs, platforms, or cross-functional initiatives, showcasing the ability to manage and influence multiple operational streams.

• Experience working in a highly regulated industry such as medical devices, aerospace, automotive, or a similar regulated environment is a significant asset, crucial for understanding operational constraints and compliance requirements.

• Experience with robotic systems, software-controlled systems, complex multidisciplinary products, Agile/SAFe-aligned development, SolidWorks, MATLAB, Python, C++, requirements management tools, or Agile development tools is highly advantageous for operational execution. Required Skills:

• Recognized expertise in systems engineering for complex multidisciplinary products, particularly robotic or software-controlled medical device systems, essential for effective product development and operational deployment.

• Strong knowledge of medical device design controls, user needs, clinical workflow inputs, requirements engineering, system architecture, interface strategy, risk management, verification and validation, usability engineering, DHF documentation, and quality system procedures, forming the backbone of compliant operations.

• Exceptional analytical skills, technical judgment, trade-off analysis, and decision facilitation capabilities, vital for making sound operational and design choices.

• Ability to simplify complex topics for diverse audiences, crucial for effective communication across technical, GTM, and operational teams.

• Ability to lead through influence across projects, stakeholders, functions, sites, and organizational levels, demonstrating strong operational leadership.

• Excellent written and verbal communication skills, including stakeholder alignment, ambiguity resolution, and decision facilitation, critical for cross-functional operational collaboration.

• Ability to support surgeon evaluations, usability studies, technical demonstrations, hands-on robotic testing, and system integration activities, ensuring operational feedback is incorporated.

• Proficiency with Microsoft Office Suite, requirements management tools, and Agile tools. Preferred Skills:

• Experience with SolidWorks, MATLAB, Python, or C++ are considered assets, enhancing technical capabilities for system design and analysis.

• Written and spoken French proficiency is an asset, valuable for collaboration within the Montreal office and potentially with French-speaking stakeholders.

📝 Enhancement Note: Qualifications have been aligned with the needs of a principal-level role in a regulated industry, emphasizing experience in NPI, quality systems, and cross-functional collaboration, all of which are critical for smooth operational transitions from design to market.

📊 Process & Systems Portfolio Requirements

Portfolio Essentials:

• Case Studies in System Design & NPI: Showcase 2-3 detailed case studies demonstrating your leadership in complex system design for New Product Introduction (NPI) projects. For each, clearly outline the problem, your approach, the systems engineering methodologies used (e.g., requirements management, architecture definition, risk analysis), and the tangible outcomes, ideally linking design decisions to operational readiness or GTM success.

• Process Optimization Examples: Include examples of how you've improved system design processes, quality system effectiveness, or DHF documentation practices. Quantify the impact where possible (e.g., reduced cycle time, improved defect detection, enhanced traceability).

• Technical Leadership & Mentorship: Provide evidence of your technical leadership, such as leading trade studies, making critical technical decisions, or influencing cross-functional teams. If applicable, include examples of mentoring junior engineers in systems engineering disciplines.

• Demonstration of Systems Engineering Principles: Clearly articulate your understanding and application of core systems engineering principles, including requirements elicitation, decomposition, V&V strategies, and risk management frameworks, as applied to complex multidisciplinary products.

• Regulatory Compliance Documentation: If possible, include anonymized examples or descriptions of your involvement with Design History Files (DHF), quality system procedures, or regulatory submissions, demonstrating your understanding of compliance within a regulated operational framework.

Process Documentation:

• Workflow Design and Optimization: Demonstrate your ability to design, document, and optimize complex engineering workflows, particularly those related to NPI, design controls, and system integration. Highlight any contributions to standardizing these processes.

• Implementation and Automation: Showcase experience with implementing new processes or tools, or automating aspects of the design, testing, or documentation phases. This could include experience with requirements management tools or Agile project management software.

• Measurement and Performance Analysis: Provide examples of how you have measured the performance of design processes, system integration efforts, or the effectiveness of quality controls. This should include your approach to analyzing data to identify areas for improvement.

📝 Enhancement Note: This section outlines specific requirements for a portfolio that showcases not just technical design skills but also the operational aspects of process management, system integration, and continuous improvement, crucial for a principal-level role.

💵 Compensation & Benefits

Salary Range:

• Estimated Range: $105,000 - $131,000 CAD per year.

• Methodology: This estimate is based on the provided salary expectations in the job description, adjusted for the Principal Designer level, the specific technical domain (robotic surgical systems), and the Montreal, Quebec location. It aligns with industry benchmarks for senior engineering and technical leadership roles in specialized technology sectors within Canada.

Benefits:

• Development Opportunities: Access to programs and resources for continuous learning and professional growth.

• Employee Resource Groups (ERGs): Opportunities to join and contribute to groups focused on diversity, inclusion, and shared interests.

• Flexible Working Environment: Hybrid work model allowing for a balance between in-office collaboration and remote flexibility.

• Competitive Total Rewards: Comprehensive compensation package including salary, potential bonuses, and other incentives.

• Wellness Incentives: Programs and support aimed at promoting employee health and well-being.

• Recognition and Performance Awards: A culture that acknowledges and rewards employee contributions and achievements.

• Healthcare and Retirement: Likely includes robust health insurance, dental, vision coverage, and retirement savings plans (e.g., RRSP matching), typical for established medical technology companies.

• Paid Time Off: Generous vacation, sick leave, and public holiday entitlements.

Working Hours:

• Standard full-time work schedule, likely around 40 hours per week.

• The hybrid model requires a minimum of three days per week in the Montreal office, providing structure with flexibility.

📝 Enhancement Note: The salary range is directly extracted, and benefits are elaborated based on standard offerings for such roles in large medical technology companies, with a focus on aspects relevant to operations professionals such as development and flexibility.

🎯 Team & Company Context

🏢 Company Culture

Industry: Medical Technology / Healthcare / Robotics. Zimmer Biomet is a global leader in musculoskeletal healthcare, with a significant focus on innovative surgical technologies, including robotics. This industry is characterized by stringent regulatory oversight, a strong emphasis on patient outcomes, and continuous innovation.

Company Size: Large Enterprise (Zimmer Biomet is a global company with thousands of employees worldwide). This implies structured processes, established career paths, and ample resources, but also a need for individuals who can navigate larger organizational complexities and ensure operational efficiency.

Founded: Zimmer Biomet was formed in 2015 through the merger of Zimmer and Biomet, but the legacy companies have histories dating back decades (Zimmer founded in 1927, Biomet in 1977). This blend of long-standing expertise and modern integration indicates a company that values both tradition and forward-thinking innovation.

Team Structure:

• Operations Team: Likely integrated within the R&D or Engineering departments, focusing on New Product Introduction (NPI), design controls, quality assurance, and system integration.

• Reporting Structure: The "Principal" title suggests a senior individual contributor role, likely reporting to an Engineering Manager, Director of Systems Engineering, or Head of R&D for specific product lines. They will manage and mentor lower-level designers.

• Cross-functional Collaboration: Expect extensive collaboration with product management, software development, hardware engineering, manufacturing operations, quality assurance, regulatory affairs, and marketing teams to ensure seamless product development and market launch.

Methodology:

• Data Analysis and Insights: Emphasis on data-driven decision-making for system design, risk assessment, and V&V strategy, utilizing inputs from clinical feedback, usability studies, and performance testing.

• Workflow Planning and Optimization: Focus on structured systems engineering processes (e.g., V-model, Agile/SAFe), with an ongoing effort to optimize these workflows for efficiency, quality, and compliance in NPI.

• Automation and Efficiency: Leveraging tools and technologies to automate repetitive tasks in design, testing, and documentation, thereby improving operational efficiency and reducing time-to-market.

Company Website: https://careers.zimmerbiomet.com/us/en

📝 Enhancement Note: Company context is derived from the affiliation with Zimmer Biomet, a well-established medical technology giant. The description emphasizes how this context shapes the operations and engineering environment, particularly regarding regulatory compliance and innovation in surgical robotics.

📈 Career & Growth Analysis

Operations Career Level: This "Principal" level role signifies a senior individual contributor with deep technical expertise and significant influence. It sits at the top of the individual contributor track for systems design, often a precursor to management roles or a recognized expert path. For operations professionals, this means a role focused on strategic impact, process definition, and high-level problem-solving rather than day-to-day execution.

Reporting Structure: As a Principal Designer, you will likely report to a Director or Senior Manager within Engineering or R&D. You will be expected to guide and mentor junior engineers and designers, acting as a technical authority within your domain. This structure emphasizes influence and expertise over direct people management.

Operations Impact: The systems designed will directly impact the company's product portfolio, market competitiveness, and ultimately, its revenue streams. By ensuring robust, compliant, and user-friendly robotic surgical systems, this role supports successful product launches, market adoption, and the company's reputation for innovation and quality. This role is critical in translating complex technical capabilities into operationally viable products that meet market demands.

Growth Opportunities:

• Technical Specialization: Deepen expertise in specific areas of robotic systems, AI in surgery, or advanced human-machine interfaces, becoming a recognized Subject Matter Expert (SME) within the company and industry.

• Leadership Development: Transition into management roles (e.g., Systems Engineering Manager, R&D Manager) or take on broader program leadership responsibilities (e.g., Technical Program Manager for major NPI initiatives).

• Cross-Functional Mobility: Leverage systems engineering expertise to move into roles in product management, advanced R&D, or even strategic operations planning, where a deep understanding of product lifecycle and system integration is valuable.

• Process Improvement Leadership: Lead initiatives to refine and standardize systems engineering and NPI processes across the organization, contributing to operational excellence.

• Industry Influence: Represent the company at conferences, contribute to industry standards bodies, and publish technical papers, enhancing personal and company brand in the field of surgical robotics.

📝 Enhancement Note: This analysis focuses on how a "Principal Designer" role translates into career progression within an operations and GTM context, emphasizing the strategic influence and potential for growth into leadership or specialized technical roles.

🌐 Work Environment

Office Type: Hybrid work environment. This role requires a minimum of three days per week in the Montreal office, balancing the need for in-person collaboration and hands-on work with the flexibility of remote work.

Office Location(s): Montreal, Quebec, Canada. This location offers a vibrant technology and engineering hub with access to a skilled talent pool.

Workspace Context:

• Collaborative Environment: The office setting is designed to foster collaboration among engineering teams, likely featuring open-plan areas, meeting rooms, and dedicated spaces for hands-on testing and integration. This is crucial for efficient problem-solving in complex NPI projects.

• Operations Tools and Technology: Access to state-of-the-art laboratory equipment for robotic system testing, integration bays, and specialized software tools for design, simulation, and requirements management.

• Team Interaction: Opportunities for frequent interaction with cross-functional teams, including R&D, QA, Manufacturing, and Product Management, facilitating seamless communication and alignment on operational goals.

Work Schedule:

• Standard professional work hours, typically 40 hours per week.

• The hybrid model allows for flexibility in structuring the work week, enabling dedicated focus time for deep technical work and collaborative sessions on designated office days.

📝 Enhancement Note: The work environment description focuses on the practical aspects relevant to an operations-focused professional, emphasizing collaboration, access to tools, and the structured flexibility of a hybrid model.

📄 Application & Portfolio Review Process

Interview Process:

• Initial Screening: HR or recruiter call to assess basic qualifications, experience, and cultural fit.

• Hiring Manager Interview: In-depth discussion with the hiring manager focusing on your technical leadership, systems engineering experience, and understanding of NPI in regulated environments. Expect questions about past projects and problem-solving approaches.

• Technical Panel Interview: A session with peer engineers and potentially cross-functional stakeholders. This will involve deep dives into your technical expertise, systems engineering methodologies, and handling of complex design challenges. Case studies or hypothetical scenarios may be presented.

• Portfolio Review Presentation: A dedicated session where you present selected case studies from your portfolio, demonstrating your impact, methodologies, and problem-solving skills. This is a critical stage for showcasing your practical experience.

• Final Interview: Potentially with a senior leader (e.g., Director, VP) to discuss strategic alignment, leadership potential, and overall fit within the organization's vision.

Portfolio Review Tips:

• Curate Strategically: Select 2-3 of your most impactful projects that best represent your capabilities in systems engineering, NPI leadership, and working within regulated industries.

• Structure Your Case Studies: For each project, clearly define the problem, your role and responsibilities, the methodologies and tools used, the challenges encountered and how you overcame them, and the quantifiable results or impact. Focus on the "why" and "how" of your decisions.

• Highlight Operational Impact: Frame your achievements in terms of efficiency gains, risk mitigation, quality improvements, or successful product launches supported by your design work. Connect technical solutions to business outcomes.

• Demonstrate Systems Thinking: Clearly articulate your approach to integrating different components (hardware, software, usability) and ensuring end-to-end traceability from user needs to final product.

• Be Prepared for Technical Deep Dives: Anticipate detailed questions about your technical decisions, trade-offs, and problem-solving approaches.

• Showcase Process Improvement: If applicable, include examples of how you’ve improved design or NPI processes, demonstrating your commitment to operational excellence.

Challenge Preparation:

• Systems Engineering Challenge: You might be given a hypothetical NPI scenario and asked to outline your approach to requirements definition, architecture, risk management, and V&V planning. Focus on structuring your response logically and demonstrating your understanding of the full lifecycle.

• Problem-Solving Scenario: Be prepared to discuss how you would troubleshoot a complex system integration issue or resolve a conflict between design requirements and manufacturing constraints.

• Leadership & Mentorship Scenario: Expect questions on how you would mentor a junior engineer, handle a design disagreement within a team, or influence stakeholders to adopt a particular technical solution.

• Process Improvement Exercise: You might be asked to identify potential inefficiencies in a given NPI process and propose solutions.

📝 Enhancement Note: This section provides actionable advice for preparing for the interview process, with a strong emphasis on portfolio preparation and demonstration, which is crucial for senior technical roles.

🛠 Tools & Technology Stack

Primary Tools:

• Requirements Management Tools: Experience with tools like DOORS, Jama Connect, or similar platforms is essential for defining, tracing, and managing complex system requirements in a regulated environment.

• System Design & Modeling: Proficiency in tools for system architecture definition, modeling, and simulation, such as SysML tools (e.g., Cameo Systems Modeler, Enterprise Architect) or specialized simulation software.

• CAD Software: Experience with SolidWorks is explicitly mentioned as an asset, indicating its use in design and integration aspects.

• Agile Project Management Tools: Familiarity with tools like Jira, Confluence, or Azure DevOps for managing NPI projects in an Agile or SAFe framework.

Analytics & Reporting:

• Data Analysis Tools: While not explicitly stated for this role, experience with data analysis tools (e.g., MATLAB, Python for scripting and analysis, potentially R) is beneficial for evaluating system performance, V&V data, and troubleshooting.

• Simulation Software: Tools for simulating system behavior, performance, and integration, which may include MATLAB/Simulink or other domain-specific simulation platforms.

CRM & Automation:

• Not primary for this role: CRM systems are typically used by sales and marketing. However, understanding how CRM data might inform user needs or product feedback could be an advantage.

• Automation Tools: Experience with scripting or automation in testing or data analysis (e.g., Python, C++ for scripting) would be valuable for improving efficiency in V&V and troubleshooting.

📝 Enhancement Note: This section details the technical toolkit expected for a Systems Principal Designer, focusing on tools critical for NPI, requirements management, and system integration in a regulated medical device context.

👥 Team Culture & Values

Operations Values:

• Innovation & Excellence: A drive to push the boundaries of medical technology through rigorous engineering and a commitment to delivering high-quality, reliable products.

• Patient Focus: An underlying commitment to improving patient outcomes through the development of advanced surgical solutions.

• Integrity & Compliance: Upholding the highest ethical standards and ensuring strict adherence to regulatory requirements in all aspects of design and development.

• Collaboration & Respect: Fostering a team environment where diverse perspectives are valued, ideas are challenged constructively, and collective problem-solving is encouraged.

• Accountability & Ownership: Taking responsibility for one's work, driving projects to completion, and being accountable for the quality and impact of design decisions.

Collaboration Style:

• Cross-functional Integration: A highly collaborative approach, working closely with diverse teams (R&D, QA, Manufacturing, Marketing) to ensure alignment from concept to commercialization.

• Process-Oriented: Emphasis on structured processes and documentation, particularly within the framework of design controls and quality systems, to ensure consistency and traceability.

• Knowledge Sharing: A culture that encourages sharing best practices, lessons learned, and technical expertise across teams and projects to elevate organizational capability.

• Data-Driven Decision Making: Decisions are informed by data from testing, user feedback, and market analysis, promoting an objective and efficient approach to problem-solving.

📝 Enhancement Note: This section extrapolates company culture and values based on the industry and the nature of a principal-level technical role, emphasizing aspects relevant to operational effectiveness and collaboration.

⚡ Challenges & Growth Opportunities

Challenges:

• Navigating Complex Regulatory Landscapes: Ensuring all design decisions and documentation comply with stringent global medical device regulations (e.g., FDA, MDR). This requires meticulous attention to detail and a deep understanding of compliance requirements.

• Balancing Innovation with Risk Aversion: Introducing novel robotic technologies while managing inherent risks and ensuring patient safety and product reliability.

• Cross-Functional Alignment: Effectively managing diverse stakeholder expectations and priorities across R&D, manufacturing, quality, and commercial teams to ensure seamless product integration and market launch.

• Rapid Technological Evolution: Keeping pace with advancements in robotics, AI, and surgical techniques to maintain a competitive edge and incorporate future-proof designs.

• Mentoring and Developing Talent: Effectively guiding and developing junior engineers while managing complex projects and driving strategic initiatives.

Learning & Development Opportunities:

• Advanced Systems Engineering Training: Opportunities to deepen expertise in specific systems engineering disciplines, modeling techniques, or advanced V&V strategies.

• Industry Conferences and Certifications: Support for attending leading medical technology and robotics conferences, and pursuing relevant professional certifications.

• Leadership Development Programs: Access to internal and external training focused on technical leadership, project management, and people management for those aspiring to move into leadership roles.

• Exposure to Cutting-Edge Technologies: Working with next-generation robotic surgical systems and contributing to the future of medical technology innovation.

• Mentorship from Industry Experts: Opportunities to learn from and collaborate with seasoned professionals and recognized leaders in the field of surgical robotics.

📝 Enhancement Note: This section outlines potential challenges and growth avenues, framed to resonate with operations professionals by highlighting regulatory, cross-functional, and technological aspects, alongside structured development paths.

💡 Interview Preparation

Strategy Questions:

• Operations Strategy & Methodology: "Describe a time you influenced the NPI process to improve efficiency or quality. What systems engineering principles did you apply, and what was the outcome?" "How do you ensure that system design decisions align with manufacturing capabilities and market launch timelines?"

• Collaboration & Stakeholder Management: "How do you communicate complex technical trade-offs to non-technical stakeholders (e.g., marketing, sales) to gain alignment?" "Describe a situation where you had to resolve conflicting requirements from different functional teams. What was your approach?"

• Problem-Solving: "Walk us through a complex technical challenge you faced in a robotic system design. How did you approach root cause analysis, and what solution did you implement?" "How would you approach designing a new feature for a robotic surgical system, considering user needs, regulatory constraints, and integration challenges?"

Company & Culture Questions:

• "What interests you most about Zimmer Biomet's work in surgical robotics and our mission?"

• "How do you see your skills in systems engineering and technical leadership contributing to our team's goals and the company's culture of innovation?"

• "Describe your experience working in a highly regulated environment and how you ensure compliance in your work." Portfolio Presentation Strategy:

• Focus on Impact: Select case studies that clearly demonstrate your ability to drive tangible results – improved product performance, streamlined processes, successful issue resolution, or contribution to market-ready products.

• Quantify Achievements: Use metrics whenever possible (e.g., "reduced integration time by 15%", "improved requirement traceability coverage to 99%", "mitigated critical risk X").

• Tell a Story: Structure your presentations with a clear narrative: the challenge, your strategic approach, the execution, and the impactful outcome.

• Showcase Systems Thinking: Explicitly explain how you integrated different components and disciplines, and how your design decisions supported the overall product lifecycle and operational readiness.

• Address Challenges and Trade-offs: Be prepared to discuss difficult decisions, compromises made, and lessons learned. This demonstrates maturity and problem-solving depth.

📝 Enhancement Note: Interview preparation advice is tailored to the principal-level systems engineering role, focusing on strategic thinking, operational impact, and the demonstration of leadership through past projects.

📌 Application Steps

To apply for this operations-focused Systems Principal Designer position:

• Submit Your Application: Apply through the provided link on the Zimmer Biomet careers website.

• Tailor Your Resume: Ensure your resume highlights your 7+ years of experience in systems engineering, NPI, and regulated industries. Use keywords from the job description such as "systems engineering," "robotic systems," "NPI," "design controls," "risk management," and "technical leadership." Quantify achievements wherever possible.

• Prepare Your Portfolio: Select 2-3 strong case studies showcasing your expertise in system design for complex products, with an emphasis on NPI, process optimization, and regulatory compliance. Be ready to present these, focusing on your role, methodologies, and quantifiable impact.

• Research Zimmer Biomet: Understand the company's mission, its position in the surgical robotics market, and its commitment to innovation and quality. Familiarize yourself with their product portfolio and any recent news or developments.

• Practice Your Interview Responses: Prepare for behavioral and technical questions, focusing on demonstrating your problem-solving skills, leadership capabilities, and understanding of systems engineering principles within a regulated operational context. Rehearse your portfolio presentation.

⚠️ 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.