Product Engineer Career Path Guide

A Product Engineer plays a pivotal role in the lifecycle of product development by bridging design concepts with manufacturing realities. This role revolves around refining product designs, optimizing manufacturing processes, and solving engineering challenges to deliver high-quality, cost-effective, and innovative products that meet customer needs and business goals.

7%

growth rate

$90,000

median salary

remote-friendly

πŸ“ˆ Market Demand

Low
High
High

The demand is currently high, driven by increased adoption of advanced manufacturing techniques, growth in consumer electronics, automotive innovation, and emphasis on sustainability. Companies seek Product Engineers able to innovate rapidly while optimizing production cost and quality.

πŸ‡ΊπŸ‡Έ Annual Salary (US, USD)

65,000β€”115,000
Median: $90,000
Entry-Level
$72,500
Mid-Level
$90,000
Senior-Level
$107,500

Top 10% of earners in this field can expect salaries starting from $115,000+ per year, especially with specialized skills in high-demand areas.

Core Functions of the Product Engineer Role

Product Engineers are technical professionals focused on the development, improvement, and launch of products, ensuring that design intent is translated into functional, manufacturable goods. They work closely with cross-functional teams including design, manufacturing, quality, and supply chain to oversee each phase of the product lifecycleβ€”from initial concept through production and field support.

Working at the intersection of research, design, and manufacturing, Product Engineers apply engineering principles to optimize products for performance, reliability, cost, and manufacturability. This involves assessing materials, processes, and production techniques, often requiring problem-solving when unexpected issues arise during prototyping or mass production.

The scope of a Product Engineer’s role varies widely depending on industry and company size but often includes evaluating new technology integration, conducting root cause analysis on product failures, and driving continuous improvement initiatives. They must balance competing priorities such as functionality, safety, environmental compliance, and cost-efficiency.

Close collaboration with suppliers and vendors is common, facilitating material sourcing and manufacturing logistics. Additionally, product engineers support quality assurance teams by developing test protocols and analyzing product performance data.

Their influence extends into customer service through troubleshooting and product enhancements based on direct user feedback. Constant adaptation and iterative development form the core rhythm of a product engineer’s career, requiring a combination of technical expertise, creativity, and business insight.

Key Responsibilities

  • Design for manufacturability: Translate design concepts into scalable manufacturing processes.
  • Material selection and testing to ensure product durability and compliance with standards.
  • Collaborate with design teams to refine prototypes based on performance and production feedback.
  • Conduct root cause analysis and implement corrective actions for quality issues.
  • Optimize production workflows to improve efficiency and reduce costs.
  • Support supplier selection, evaluation, and collaboration for material and component sourcing.
  • Develop and execute product validation and testing plans.
  • Create documentation for manufacturing processes, assembly instructions, and quality standards.
  • Analyze product lifecycle data to identify opportunities for enhancements and cost savings.
  • Manage cross-functional communication to align engineering, manufacturing, and business goals.
  • Participate in risk assessments and ensure products meet safety and regulatory requirements.
  • Lead or contribute to continuous improvement projects within product and manufacturing teams.
  • Support new product launches by coordinating activities across engineering and production teams.
  • Maintain awareness of emerging technologies and industry trends to recommend innovations.
  • Assist in resolving field product issues and customer complaints through technical analysis.

Work Setting

Product Engineers typically work in office settings combined with manufacturing facilities, laboratories, and occasionally customer sites. Their environment is dynamic, requiring frequent communication and coordination across diverse teams. Time is split between computer workβ€”using CAD tools and data analysis softwareβ€”and on-site visits to prototype workshops or production lines to troubleshoot and verify design implementations. In manufacturing-heavy sectors, the environment may be noisy or involve exposure to industrial equipment, necessitating safety protocols. Deadlines and project milestones create a fast-paced work rhythm, often prompting periods of intense focus balanced by collaboration sessions. Remote work has increased in scope for documentation or design phases, but hands-on involvement on the shop floor remains critical to the role. Flexible work hours can be common to meet project demands or supplier coordination across time zones.

Tech Stack

  • Computer-Aided Design (CAD) software like SolidWorks, AutoCAD, and CATIA
  • Finite Element Analysis (FEA) tools such as ANSYS or Abaqus
  • Product Lifecycle Management (PLM) software including Siemens Teamcenter or PTC Windchill
  • Manufacturing Execution Systems (MES)
  • Enterprise Resource Planning (ERP) software such as SAP or Oracle
  • Statistical Process Control (SPC) tools
  • 3D printing and rapid prototyping machines
  • Data analysis and visualization tools like MATLAB and Tableau
  • Version control software such as Git or Jira for project management
  • Quality management systems (QMS) software
  • Material testing equipment (tensile testers, hardness testers)
  • Root cause analysis tools like 8D or Fishbone diagrams
  • Thermal and structural simulation software
  • Collaboration tools such as Microsoft Teams, Slack, and Zoom
  • Programming/scripting languages for automation (Python, VBA)
  • Geometric Dimensioning and Tolerancing (GD&T) software
  • Six Sigma and Lean manufacturing methodologies
  • Supply chain management (SCM) systems

Skills and Qualifications

Education Level

A typical educational pathway to become a Product Engineer involves obtaining at least a bachelor's degree in engineering disciplines such as Mechanical, Industrial, Electrical, or Manufacturing Engineering. This foundation equips candidates with a solid grasp of core engineering principles, design methodologies, materials science, and manufacturing processes needed for the role.

Advanced coursework in product design, CAD modeling, materials selection, and quality control is highly advantageous. Many universities offer specialized electives or concentrations tailored to product development and manufacturing engineering.

Employers often value hands-on experience gained through internships, cooperative education (co-op) programs, or relevant industrial projects. A master’s degree or certifications in product design, Six Sigma, Lean Manufacturing, or project management can elevate one’s profile and open doors to senior roles.

Continuous professional development is crucial due to rapidly evolving technologies. Staying current with automation, robotics, digital twin technology, and additive manufacturing is important. Additionally, since communication and project coordination are central to this role, engineering graduates who supplement their technical education with interpersonal and management courses tend to excel in the workplace.

Tech Skills

  • Proficiency in CAD software (SolidWorks, AutoCAD, CATIA)
  • Finite Element Analysis (FEA)
  • Design for Manufacturability (DFM) principles
  • Material properties and selection
  • Product Lifecycle Management (PLM) systems
  • Root cause analysis and corrective actions
  • Statistical Process Control (SPC)
  • Prototype development and testing
  • Quality Management Systems (QMS)
  • Manufacturing process knowledge (CNC machining, injection molding)
  • GD&T and dimensioning
  • Data analysis and interpretation
  • Knowledge of supply chain and procurement processes
  • Programming for automation (Python, VBA)
  • Six Sigma and Lean methodologies

Soft Abilities

  • Problem-solving mindset
  • Cross-functional collaboration
  • Effective communication
  • Project management
  • Adaptability to changing priorities
  • Attention to detail
  • Time management
  • Critical thinking
  • Customer focus and empathy
  • Creativity in engineering solutions

Path to Product Engineer

Embarking on a career as a Product Engineer starts with a firm commitment to acquiring relevant education in engineering. Securing a bachelor’s degree in Mechanical, Industrial, or Manufacturing Engineering lays the technical foundation essential to succeed in this role. During university, seek courses and projects related to product design, manufacturing processes, and materials science to build specialized knowledge.

Supplement classroom learning with internships or cooperative education placements at manufacturing companies or product design firms. These experiences provide valuable practical insight, networking opportunities, and exposure to real-world challenges. Many employers prioritize candidates with proven hands-on experience.

After graduation, entry-level positions such as junior product engineer, manufacturing engineer, or quality engineer are common entry points. These roles provide exposure to different stages of product development and valuable mentorship. Obtaining certifications like Six Sigma Green Belt or Lean Manufacturing can demonstrate added value and improve problem-solving capabilities.

Continuing education through workshops, seminars, or advanced degrees enhances skills in emerging technologies such as additive manufacturing, automation, and digital twin simulation. Strong communication and project management abilities are critical; consider professional development courses in these areas.

Building a portfolio of projects, contributions to process improvements, and effective collaboration tracks progress toward higher-level roles. Networking through professional associations and industry conferences can reveal opportunities and keep you ahead of market trends. Staying adaptable and proactive opens doors to leadership roles or niche specialization in complex product ecosystems.

Required Education

Colleges and universities offering accredited engineering programs form the primary educational pipeline for aspiring Product Engineers. Bachelor of Science degrees in Mechanical Engineering, Industrial Engineering, or Manufacturing Engineering provide the broad and technical knowledge base needed. Curriculums should include extensive coursework in materials science, computer-aided design (CAD), manufacturing processes, and quality control.

Specialized training programs focused on product development, design for manufacturability, and prototyping strengthen a candidate’s practical readiness. Technical workshops teaching software tools such as SolidWorks or CATIA are commonly found in higher education institutions and industry training centers.

Professional certifications act as supplementary credentials that enhance credibility in the field. Six Sigma and Lean manufacturing certifications are highly regarded for driving efficiency and quality improvements. Certifications in project management (PMP) or quality assurance add further depth.

Many engineers also pursue master's degrees in engineering management, product design, or manufacturing systems to gain leadership skills and deeper technical expertise. Online platforms and continuing education programs have made training more accessible to working professionals seeking upskilling.

Practical training through internships, apprenticeships, and on-the-job learning remains invaluable. Collaboration between academic institutions and industry players ensures curricula adapt to evolving needs, highlighting the importance of lifelong learning in this profession.

Career Path Tiers

Junior Product Engineer

Experience: 0-2 years

This entry-level tier focuses on learning the fundamentals of product engineering through hands-on tasks and close supervision. Junior Product Engineers assist in prototype testing, basic design validation, and documentation preparation. Responsibilities include supporting senior engineers in troubleshooting, quality control, and data collection. At this stage, the individual builds familiarity with CAD tools, manufacturing processes, and cross-functional workflows. Emphasis is on mastering technical skills and understanding company-specific product development cycles.

Mid-Level Product Engineer

Experience: 3-6 years

At this level, engineers take on increased ownership of product design and manufacturing optimization. They independently manage validation tests, supplier coordination, and root cause investigations for product issues. Mid-level Product Engineers actively contribute to design reviews and process improvement initiatives, often mentoring junior colleagues. Their role expands to include budget considerations, risk assessments, and collaborating on new product launches. Strong communication and project management skills are expected to ensure effective cross-departmental alignment.

Senior Product Engineer

Experience: 7+ years

Senior Product Engineers lead complex projects involving multiple product lines or technologies. They drive innovation, guide engineering teams, and make strategic decisions balancing performance, cost, and manufacturability. This tier is responsible for resolving escalated production challenges, setting quality standards, and liaising with executive leadership. Senior professionals frequently interface with external partners, lead technical training, and contribute to long-term product roadmaps. Expertise in emerging materials and technologies often distinguishes them within the organization.

Lead Product Engineer / Engineering Manager

Experience: 10+ years

Leads hold overarching responsibility for product engineering teams and initiatives. Beyond technical expertise, they focus on resource planning, budgeting, stakeholder communication, and team development. Lead Product Engineers formulate engineering strategies aligned with business goals and often influence company-wide innovation and sustainability policies. Their role demands a blend of profound technical acumen, leadership capabilities, and a clear vision for product evolution in competitive markets.

Global Outlook

Global demand for Product Engineers spans a wide spectrum of industries, including automotive, aerospace, consumer electronics, medical devices, and industrial manufacturing. Key geographic hubs like the United States, Germany, Japan, South Korea, and China offer abundant opportunities due to their advanced manufacturing ecosystems and innovation-driven product development sectors.

Emerging economies such as India, Mexico, and Brazil are growing hubs for manufacturing and product engineering as they expand their industrial capabilities and attract multinational corporations. This has increased cross-border collaboration and offshoring of engineering functions, creating openings for engineers with global mindset and cultural fluency.

Multinational corporations often seek Product Engineers comfortable working with international supply chains, diverse teams, and global compliance standards. Fluency in multiple languages and knowledge of regional regulations can be significant career differentiators.

Remote or hybrid work models have facilitated global collaboration but many Product Engineers regularly travel or relocate to manufacturing sites worldwide to apply expertise firsthand. Awareness of geopolitical trends, resource availability, and technological advancements in different regions empowers Product Engineers to identify emerging global opportunities and navigate challenges effectively.

Job Market Today

Role Challenges

Today’s Product Engineers face intensified pressures to accelerate product development cycles while balancing cost, quality, and sustainability goals. Supply chain disruptions and raw material price volatility present significant hurdles, requiring creative negotiation and agile adjustments. Increasing product complexity involving electronics, software, and connectivity demands cross-disciplinary knowledge beyond traditional engineering. Manufacturing automation and digital transformation introduce new technologies but also require continuous learning and re-skilling. Engineers must collaborate effectively with diverse teams including data scientists, software developers, and procurement specialists. Regulatory landscapes are evolving rapidly, especially in the areas of environmental impact and safety, adding layers of compliance complexity. Additionally, the globalized nature of product development challenges engineers to manage communication across multiple cultures and time zones. Balancing innovation with cost containment and risk mitigation in competitive markets demands both technical prowess and strategic business insight.

Growth Paths

Expansion of high-tech manufacturing and the rise of smart products offer tremendous growth opportunities for Product Engineers. Areas such as electric vehicles, renewable energy devices, wearable technology, and medical implants depend heavily on skilled engineers to refine designs and scale production efficiently. Digital tools like AI-driven simulation, additive manufacturing, and IoT-enabled quality control allow Product Engineers to innovate and optimize at unprecedented speed. Sustainability has become a dominant focus, opening avenues for experts specializing in eco-friendly materials, lifecycle analysis, and circular economy principles. Growing appreciation for user experience and rapid customization trends pushes Product Engineers into closer collaboration with design and marketing teams, broadening their impact. Career trajectories often lead to roles in product management, engineering leadership, or specialized consulting. The demand for hybrid skill sets combining engineering fundamentals with data analytics and software understanding continues to rise.

Industry Trends

Integration of digital twins and virtual prototyping has revolutionized how engineers conceptualize and test products before physical production. Additive manufacturing (3D printing) is increasingly used not only for prototyping but also for customized end-use parts, enabling greater design freedom. Sustainability initiatives drive innovation in materials selection and product recyclability. More companies prioritize emissions reduction and energy efficiency in design choices, embedding environmental considerations as a core element. As products incorporate embedded electronics and software, collaboration between hardware and software engineers blurs traditional boundaries. Agile development methodologies adapted from software engineering are influencing mechanical product development structures. Data analytics and AI tools are helping engineers predict product failures and optimize maintenance schedules. Global supply chain re-shoring trends increase emphasis on local manufacturing adaptability, requiring flexible product engineering approaches. Soft skills such as adaptability, communication, and cross-disciplinary cooperation have become more important as teams become diverse and distributed worldwide.

A Day in the Life

Morning (9:00 AM - 12:00 PM)

Focus: Design Review & Collaboration
  • Attend cross-functional meetings with design, manufacturing, and quality teams.
  • Present prototype test data and discuss product design adjustments.
  • Coordinate supplier communications related to material specifications.
  • Review feedback from recent production runs or field performance.

Afternoon (12:00 PM - 3:00 PM)

Focus: Hands-On Prototyping & Problem Solving
  • Visit prototype workshop or manufacturing floor to observe processes.
  • Conduct root cause analysis on product failures or defects.
  • Perform testing or oversee part fabrication for validation.
  • Update CAD models or revise manufacturing documentation.

Late Afternoon (3:00 PM - 6:00 PM)

Focus: Data Analysis & Process Optimization
  • Analyze production data for efficiency and quality improvement opportunities.
  • Develop process optimization plans based on Six Sigma principles.
  • Prepare reports for management and document project progress.
  • Plan upcoming design iterations or coordinate training sessions.

Work-Life Balance & Stress

Stress Level: Moderate

Balance Rating: Good

Product Engineering generally offers a stable work-life balance, although stress can spike near product launches or during complex troubleshooting. The role requires juggling multiple stakeholders and deadlines, but companies increasingly embrace flexible scheduling to accommodate engineers’ needs. Opportunities for remote work exist, especially during design and documentation phases, enhancing work-life flexibility. Balancing hands-on manufacturing involvement and office tasks might require time management skills, but overall, the field supports a healthy professional lifestyle.

Skill Map

This map outlines the core competencies and areas for growth in this profession, showing how foundational skills lead to specialized expertise.

Foundational Skills

Core competencies every Product Engineer must have to perform effectively.

  • Mechanical Design and CAD Modeling
  • Materials Science and Testing
  • Manufacturing Process Knowledge
  • Quality Control and Assurance
  • Root Cause Analysis

Specialization Paths

Advanced skills for those seeking to deepen expertise in specific areas.

  • Finite Element Analysis (FEA)
  • Additive Manufacturing and Rapid Prototyping
  • Supply Chain and Vendor Management
  • Digital Twin and Simulation Technologies
  • Sustainability and Eco-Design

Professional & Software Skills

Complementary skills and tools enabling success in professional environments.

  • Product Lifecycle Management (PLM) Software
  • Project Management and Agile Methodologies
  • Effective Cross-functional Communication
  • Data Analysis and Reporting Tools
  • Lean and Six Sigma Methods

Pros & Cons for Product Engineer

βœ… Pros

  • Opportunity to work on diverse products across industries including automotive, aerospace, and consumer goods.
  • Combination of creative problem solving and technical application, keeping work engaging.
  • Strong career growth potential ranging from hands-on engineering to management roles.
  • Collaboration with cross-functional teams enhances interpersonal and leadership skills.
  • Access to cutting-edge tools and technologies like CAD, simulation, and additive manufacturing.
  • Competitive salaries with benefits and potential for international work or travel.

❌ Cons

  • High pressure during product launch phases or when resolving production challenges.
  • Need to stay constantly updated with new manufacturing processes and technologies.
  • Occasional requirement to work onsite in noisy or industrial environments.
  • Balancing conflicting priorities between design innovation and manufacturing constraints.
  • Possibility of tight deadlines leading to long hours or weekend work occasionally.
  • Complex coordination across multiple stakeholders can lead to communication frustrations.

Common Mistakes of Beginners

  • Underestimating the importance of DFM (Design for Manufacturability), leading to designs that are difficult or costly to produce.
  • Overlooking the impact of material selection on product durability and cost.
  • Failing to communicate effectively with manufacturing and quality teams, causing misunderstandings and delays.
  • Neglecting to document changes and test results thoroughly, which complicates troubleshooting efforts.
  • Relying too heavily on initial design assumptions without validating through prototyping or testing.
  • Ignoring supply chain and vendor considerations early in the design process.
  • Struggling to balance speed with attention to detail during fast-paced project phases.
  • Avoiding continuous learning about emerging technologies, which can lead to skill stagnation.

Contextual Advice

  • Always incorporate manufacturability into your early design decisions to avoid costly rework.
  • Build strong relationships with suppliers and manufacturers to facilitate smoother project delivery.
  • Prioritize clear and frequent cross-functional communication to align expectations and clarify requirements.
  • Use data-driven approaches for testing and validation to back up engineering decisions.
  • Embrace iterative prototyping as an essential tool rather than a time-consuming hurdle.
  • Invest time in mastering industry-standard software and simulation tools to increase efficiency.
  • Develop soft skills such as negotiation, time management, and leadership alongside technical expertise.
  • Stay informed on sustainability trends and materials innovations to future-proof your designs.

Examples and Case Studies

Revolutionizing Automotive Components with Additive Manufacturing

An automotive parts manufacturer sought to reduce weight and production costs of a critical engine bracket. A product engineer led a cross-functional project integrating additive manufacturing to redesign the bracket, applying topology optimization to reduce material usage without compromising strength. Rapid prototyping and rigorous testing validated the new design. Implementation led to 25% weight reduction and a 15% cost saving in production while enhancing performance under stress conditions.

Key Takeaway: This case highlights how blending advanced digital tools and manufacturing techniques can produce innovative solutions that enhance product value and sustainability.

Resolving Supplier Quality Issues for Consumer Electronics

A product engineer confronted recurring failures in touchscreen assemblies sourced from a new supplier. Using root cause analysis and coordinated testing, the engineer identified process inconsistencies causing defects. Collaborating with the supplier, the engineer implemented corrective actions and updated quality controls, resulting in a 90% reduction in field failures and restoring customer satisfaction.

Key Takeaway: Active supplier engagement and data-driven problem solving are crucial to maintaining product quality and reliability.

Launching a Medical Device with Robust Regulatory Compliance

A senior product engineer managed the development and launch of a novel handheld diagnostic device. Extensive design reviews balanced user ergonomics, manufacturability, and adherence to FDA and international medical standards. The engineer coordinated cross-department teams through the product lifecycle, ensuring documentation and testing met stringent regulatory requirements. The launch succeeded without delays, positioning the company as a leader in portable health technology.

Key Takeaway: Navigating complex regulatory frameworks requires disciplined process management and detailed documentation from engineering teams.

Portfolio Tips

A compelling Product Engineer portfolio should showcase a variety of projects demonstrating technical proficiency and problem-solving capabilities. Include detailed case studies outlining project objectives, your specific contributions, challenges encountered, and the measurable impact of your solutions. Highlight proficiency with key tools such as CAD models, simulations, and prototype photographs or videos. Where possible, emphasize collaboration with multidisciplinary teams and how your engineering input drove product improvements.

Incorporate metrics like cost savings, defect reduction percentages, or time-to-market acceleration to reinforce your achievements. Consider presenting examples that demonstrate your adaptability to different industries or product types. A well-organized portfolio with clear narratives and visuals can set you apart during job applications or promotions. Continuously update it with new projects and certifications to reflect your evolving expertise and commitment to professional growth.

Job Outlook & Related Roles

Growth Rate: 7%
Status: Growing Faster Than Average
Source: U.S. Bureau of Labor Statistics

Related Roles

Frequently Asked Questions

What is the difference between a Product Engineer and a Manufacturing Engineer?

While both roles interact closely, a Product Engineer focuses primarily on designing and optimizing the product itselfβ€”ensuring it meets quality, performance, and cost goalsβ€”whereas a Manufacturing Engineer focuses on the processes needed to build the product efficiently and safely. Product Engineers bridge design and production, while Manufacturing Engineers concentrate on process development and factory operations.

Which industries hire the most Product Engineers?

Product Engineers are in high demand across automotive, aerospace, consumer electronics, medical device manufacturing, heavy equipment, industrial machinery, and increasingly in sectors like renewable energy and IoT devices. Companies producing complex, physical products typically employ Product Engineers to ensure the technical feasibility and success of new product launches.

How important are soft skills in Product Engineering?

Soft skills are critical in this role. Product Engineers must communicate effectively with design, manufacturing, supply chain, and marketing teams, negotiate compromises, manage projects, and adapt quickly to changing priorities. Technical skills alone won’t suffice; collaboration, problem-solving, and clear communication significantly influence a product's success.

Is coding knowledge necessary for a Product Engineer?

While traditional coding is not always mandatory, knowledge of scripting languages such as Python or VBA can be highly beneficial for automating data analysis, testing, or documentation tasks. Familiarity with programming concepts increasingly helps engineers work with software and hardware integration within complex products.

What certifications can boost a Product Engineer’s career?

Certifications such as Six Sigma Green or Black Belt, Lean Manufacturing, Project Management Professional (PMP), and specialized CAD software certifications (e.g., SolidWorks Professional) add credibility and demonstrate mastery of vital methodologies. Certifications related to quality management (CQE, CQA) and sustainability can also enhance career prospects.

Can Product Engineers work remotely?

Certain aspects of Product Engineering, like CAD design, documentation, and data analysis, can be performed remotely. However, many responsibilities include on-site prototyping, manufacturing floor visits, and close supplier interaction, which often require physical presence. Hybrid models with partial remote work are increasingly common but vary by company and industry.

How do Product Engineers stay current with new technologies?

Engaging in continuous professional development through workshops, online courses, industry conferences, and professional organizations is essential. Reading journals, following emerging tools and manufacturing trends, and participating in cross-disciplinary projects helps engineers adapt to rapid technological changes.

What beginner mistakes should new Product Engineers avoid?

Common pitfalls include neglecting manufacturability during early design stages, poor communication with production teams, insufficient documentation, underestimating supplier constraints, and overconfidence in unvalidated design assumptions. Building a habit of collaborative problem-solving and thorough testing mitigates these mistakes.

What career paths can a Product Engineer pursue long-term?

Paths often lead to senior product engineering roles, engineering management, product management, or specialist positions such as materials expert or manufacturing technology lead. Some professionals transition into consulting, quality assurance leadership, or research and development roles depending on interests and expertise.

How important is sustainability in product engineering today?

Sustainability has become a core consideration in product development. Product Engineers must evaluate environmental impacts throughout the lifecycle, including material sourcing, energy use, recyclability, and compliance with regulations. Designing eco-friendly and energy-efficient products is increasingly demanded by customers and regulators alike.

Sources & References

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