Creative Technologist - UX Prototyping

📍 Job Overview

Job Title: Creative Technologist - UX Prototyping

Company: General Motors

Location: Warren, Michigan, United States

Job Type: FULL_TIME

Category: User Experience (UX) Design / Prototyping Operations

Date Posted: May 14, 2026

Experience Level: 5+ years

Remote Status: On-site

🚀 Role Summary

• This role is critical for shaping the future of human-machine interaction (HMI) within the automotive sector, focusing on advanced UX prototyping.

• It involves bridging the gap between digital interfaces and physical controls, creating high-fidelity prototypes that simulate real-world user experiences.

• The position requires a strong blend of UX design principles, technical prototyping skills, and systems thinking to bring innovative mobility concepts to life.

• Key responsibilities include developing interactive prototypes that integrate software and hardware, validating concepts, and influencing the direction of future vehicle experiences.

📝 Enhancement Note: While the job title is "Creative Technologist," the core responsibilities and required skills firmly place this role within the domain of advanced UX/HMI operations, specifically focusing on the technical execution and simulation of user experiences. It's not a traditional "operations" role in the sense of sales or revenue operations, but rather an operational role within the UX/Design function, emphasizing process and system implementation for concept validation.

📈 Primary Responsibilities

• Create high-fidelity UX prototypes using industry-standard tools like Figma and ProtoPie to accurately simulate user interactions and behaviors.

• Develop end-to-end interactive experiences by seamlessly connecting digital interfaces with physical hardware inputs, demonstrating holistic system functionality.

• Build functional proof-of-concept prototypes leveraging physical computing platforms such as Arduino or comparable embedded systems to test and validate interaction models.

• Collaborate closely with cross-functional teams, including design, engineering, and research, to iteratively refine advanced concepts and ensure alignment with product strategy.

• Translate abstract ideas and complex system logic into tangible, testable experiences that effectively communicate interaction design, motion dynamics, and overall behavior.

• Prototype across multiple modalities, including touchscreens, physical controls, and potentially immersive environments, to explore diverse interaction possibilities.

• Clearly communicate design intent and system logic through compelling, story-driven prototypes that resonate with stakeholders and inform decision-making.

📝 Enhancement Note: The primary responsibilities highlight a hands-on, execution-oriented approach to UX design. The emphasis on "building working proof-of-concept prototypes" and "connecting digital interfaces with physical hardware" signifies an operational aspect of the design process, where the realization of concepts is paramount for validation and iteration.

🎓 Skills & Qualifications

Education: Bachelor’s degree in Interaction Design, Human-Computer Interaction (HCI), Industrial Design, Engineering, or a closely related technical or design field.

Experience: 5+ years of progressive experience in UX design, interaction design, or advanced prototyping, with a demonstrated track record of bringing complex concepts to fruition.

Required Skills:

• Strong proficiency in creating high-fidelity interactive prototypes using Figma and ProtoPie.

• Hands-on experience with physical computing platforms such as Arduino or comparable embedded systems for hardware integration.

• Demonstrated ability to integrate software (digital interfaces) and hardware (physical inputs) into cohesive and functional prototype experiences.

• Deep understanding of core interaction design principles, modern UI systems, and Human-Machine Interface (HMI) best practices.

• Proven ability to translate abstract ideas into tangible, testable user experiences.

Preferred Skills:

• Experience specifically within automotive UX, HMI design, or broader mobility design contexts.

• Background in creative technology, embedded prototyping, or complex interactive systems development.

• Familiarity with real-time 3D development tools such as Unreal Engine or Unity for advanced simulations.

• Experience in related fields like consumer electronics, gaming, XR (Extended Reality), or innovation labs.

• Skills in motion design, 3D visualization, or spatial interaction design to enhance prototype fidelity and expressiveness.

• A hybrid background that effectively combines both design and technical disciplines.

📝 Enhancement Note: The qualifications emphasize a specialized skill set that blends digital design tools with hardware integration capabilities, indicating a need for a technically adept designer who can operationalize concepts through functional prototypes. The preference for automotive experience suggests a focus on the unique challenges and opportunities within vehicle HMI.

📊 Process & Systems Portfolio Requirements

Portfolio Essentials:

• A comprehensive portfolio showcasing a range of interactive prototypes, with a strong emphasis on those that demonstrate the integration of physical and digital components.

• Case studies detailing the process from concept ideation to final prototype, highlighting problem-solving approaches and iterative refinement.

• Examples of prototypes built using Figma and ProtoPie, illustrating advanced interaction techniques and user flow design.

• Demonstrations of physical computing projects (e.g., Arduino-based) that solve specific interaction challenges or simulate real-world HMI scenarios.

Process Documentation:

• Exhibit a structured approach to prototype development, from initial concept sketching and wireframing to high-fidelity simulation and hardware integration.

• Document the rationale behind design decisions and technical choices, explaining how they contributed to validating the core user experience.

• Showcase the ability to rapidly iterate on prototypes based on feedback from usability testing, design reviews, or engineering constraints.

• Demonstrate an understanding of how prototypes are used to inform product development cycles, influence engineering requirements, and communicate design vision to stakeholders.

📝 Enhancement Note: The portfolio requirements are central to this role, as they serve as the primary means of demonstrating the candidate's ability to operationalize design concepts. A strong portfolio will prove practical skills in prototyping tools and hardware integration, essential for validating HMI concepts.

💵 Compensation & Benefits

Salary Range: Based on industry benchmarks for a Creative Technologist with 5+ years of experience in a major automotive manufacturing hub like Detroit/Warren, Michigan, the estimated annual salary range is between $100,000 and $140,000. This range accounts for the specialized technical and design skills required, as well as the strategic importance of UX prototyping in automotive innovation.

Benefits:

• Comprehensive health, dental, and vision insurance plans.

• Retirement savings plan, including 401(k) with company match.

• Paid time off, including vacation, sick leave, and holidays.

• Employee vehicle discount programs and potential for car lease programs.

• Opportunities for professional development, training, and continuing education.

• Access to GM's well-being support programs and total rewards initiatives.

Working Hours: Standard full-time hours, typically 40 hours per week. While on-site presence is required, there may be some flexibility in daily start and end times, subject to team and project needs. Occasional overtime may be required to meet project deadlines.

📝 Enhancement Note: The salary estimate is based on typical compensation for UX/Creative Technologist roles with significant prototyping experience in the automotive industry, considering the location in the Detroit metropolitan area. Benefits are standard for a large corporation like General Motors, with specific perks related to the automotive sector.

🎯 Team & Company Context

🏢 Company Culture

Industry: Automotive Manufacturing and Technology. General Motors is a global leader in designing, manufacturing, and selling vehicles, with a strong strategic focus on future mobility, electrification, and advanced autonomous driving technologies. This context means the operations within the UX team are geared towards cutting-edge innovation and product development.

Company Size: Large enterprise (over 10,000 employees). This size implies structured processes, extensive resources, and a complex organizational hierarchy, requiring strong collaboration and communication skills to navigate.

Founded: 1908. With over a century of history, GM has a deep-rooted understanding of the automotive market, now actively transforming itself to lead in new mobility paradigms.

Team Structure:

• The Advanced UX team is likely a specialized unit within GM's broader Design or Engineering organization, focused on forward-looking concepts.

• Team members likely include UX Designers, Interaction Designers, Researchers, and Creative Technologists, reporting to a Design Lead or Director.

Methodology:

• Data Analysis & Insights: User research findings and prototype testing data are used to inform design iterations and validate HMI concepts.

• Workflow Planning & Optimization: Agile or hybrid methodologies are likely employed to manage rapid prototyping cycles and integrate feedback efficiently.

• Automation & Efficiency: Utilizing advanced prototyping tools and platforms to accelerate the development and testing of complex interactions.

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

📝 Enhancement Note: Understanding GM's scale and its strategic shift towards electrification and advanced technology is crucial for appreciating the operational context of this role. The UX team operates within a large corporate structure, necessitating clear processes for collaboration and innovation.

📈 Career & Growth Analysis

Operations Career Level: This role is positioned as a Senior Designer/Creative Technologist, indicating a mid-to-senior level professional with significant autonomy and expertise. It requires not just execution but also the ability to define and influence the direction of advanced HMI concepts.

Reporting Structure: Typically, a Creative Technologist reports to a Design Manager or Director within the Advanced UX or Global Design organization. Collaboration will be with peers across design, engineering, and research departments.

Operations Impact: The work directly impacts the future product roadmap by validating innovative HMI concepts early in the development cycle. High-fidelity prototypes help articulate the vision for future vehicles, influencing engineering requirements, user experience quality, and ultimately, customer satisfaction and competitive positioning.

Growth Opportunities:

• Operations Skill Advancement: Deepen expertise in specialized prototyping tools (Figma, ProtoPie, Unreal Engine), physical computing, and emerging interaction paradigms (AR/VR, AI-driven interfaces).

• Industry Specialization: Become a subject matter expert in automotive HMI, mobility UX, or advanced interaction technologies within a leading global company.

• Leadership Potential: Progress into lead design roles, managing projects, mentoring junior designers, or contributing to strategic HMI planning and future technology roadmapping.

📝 Enhancement Note: The role offers significant growth potential within a major corporation, allowing for specialization in cutting-edge automotive UX and potential progression into leadership positions. The emphasis is on growing technical and design expertise within a specific operational context.

🌐 Work Environment

Office Type: This is an on-site role within a corporate office environment at General Motors' Warren facility. It implies a collaborative workspace designed for design and engineering teams.

Office Location(s): Warren, Michigan, United States. This location is a key hub for GM's automotive design, engineering, and vehicle operations, providing direct access to relevant teams and resources.

Workspace Context:

• Collaborative Environment: Expect a dynamic workspace with opportunities for face-to-face collaboration with designers, engineers, and researchers.

• Operations Tools & Technology: Access to state-of-the-art design software, prototyping hardware (including development boards like Arduino), and potentially advanced display and simulation equipment.

• Team Interaction: Regular team meetings, design reviews, and brainstorming sessions to foster idea exchange and problem-solving.

Work Schedule: A standard 40-hour work week is expected, with the possibility of flexible start/end times. The on-site requirement ensures full immersion in the collaborative and resource-rich environment necessary for rapid prototyping and hardware integration.

📝 Enhancement Note: The on-site nature of the role is crucial for leveraging the specialized hardware and collaborative resources available within GM's Warren facility, which is central to its product development operations.

📄 Application & Portfolio Review Process

Interview Process:

• Initial Screening: A review of your resume and portfolio by a recruiter or hiring manager to assess basic qualifications and alignment with the role's technical and design requirements.

• Technical/Design Interview: An in-depth discussion focusing on your experience with Figma, ProtoPie, Arduino, and other prototyping tools. Expect questions about your design process, problem-solving approach, and how you integrate hardware and software.

• Portfolio Presentation: A dedicated session where you will present selected case studies from your portfolio, detailing your role, process, challenges, and outcomes. This is where you'll demonstrate your ability to create tangible, interactive experiences. Be prepared to walk through prototypes and explain technical implementations.

• Cross-Functional/Team Interview: Meetings with potential team members (designers, engineers) to assess cultural fit, collaboration style, and ability to work effectively within a cross-functional team.

• Final Interview: Typically with a senior leader to discuss overall fit, strategic alignment, and career aspirations.

Portfolio Review Tips:

• Curate Strategically: Select 3-5 of your strongest projects that best showcase your skills in Figma, ProtoPie, and physical computing/Arduino integration. Prioritize projects with a clear HMI or interaction design focus.

• Showcase Process & Rationale: For each project, clearly articulate the problem statement, your role, the design process, technical challenges, solutions implemented, and the impact or learnings.

• Demonstrate Technical Depth: Be prepared to explain the technical architecture of your prototypes, including how software and hardware were connected and programmed. For Arduino projects, explain the circuitry and code logic at a high level.

• Highlight Iteration: Show how you iterated on designs based on feedback or technical constraints. This demonstrates adaptability and a robust problem-solving methodology.

• Quantify Impact (If Possible): If your prototypes led to specific design decisions or influenced product direction, highlight this impact.

Challenge Preparation:

• Prototyping Exercise: You might receive a brief design challenge requiring you to outline or even build a simple prototype simulation using provided tools or a conceptual approach. Focus on clearly defining the user flow and interaction logic.

• Technical Scenario Questions: Be ready to discuss how you would approach integrating a specific sensor input with a digital interface or troubleshooting a common hardware/software integration issue.

• HMI Scenarios: Prepare to discuss your thoughts on designing interactions for automotive environments, considering factors like distraction, safety, and user context.

📝 Enhancement Note: The interview process heavily emphasizes practical demonstration of skills through the portfolio. Candidates must be ready to articulate not just the "what" but the "how" and "why" behind their prototyping work, especially concerning hardware integration.

🛠 Tools & Technology Stack

Primary Tools:

• Figma: Essential for UI design, wireframing, and building high-fidelity interactive digital prototypes. Proficiency in component libraries, auto-layout, and prototyping features is expected.

• ProtoPie: A key tool for creating advanced, high-fidelity prototypes that can simulate complex interactions and integrate with external hardware. Understanding of its sensor integration capabilities is crucial.

• Arduino IDE / Platform: For programming and interfacing with Arduino boards and other embedded systems to create physical computing prototypes. Knowledge of C/C++ for Arduino is beneficial.

Analytics & Reporting:

CRM & Automation:

Other Potential Tools:

• Adobe Creative Suite (e.g., After Effects for motion design mockups).

• Unreal Engine / Unity: For more complex 3D simulations or immersive experiences.

• 3D Modeling Software (e.g., Blender, Rhino): For creating physical components or visualizing spatial interactions.

• Version Control Systems (e.g., Git): For managing code for embedded systems.

📝 Enhancement Note: The technology stack is highly specific to UX and creative technology roles, focusing on design software and hardware integration platforms. Proficiency in Figma and ProtoPie, along with Arduino, is non-negotiable.

👥 Team Culture & Values

Operations Values:

• Innovation & Future Focus: A drive to explore and define the next generation of mobility experiences, pushing the boundaries of what's possible in automotive HMI.

• Collaboration & Cross-Functionality: Valuing teamwork and open communication across design, engineering, and research disciplines to achieve shared goals.

• User-Centricity: A commitment to understanding and designing for the real needs and behaviors of drivers and passengers.

• Technical Craftsmanship: A dedication to building high-quality, functional prototypes that accurately represent design intent and technical feasibility.

• Agility & Iteration: Embracing a dynamic workflow that allows for rapid prototyping, testing, and refinement of ideas.

Collaboration Style:

• Integrated Design & Engineering: Close working relationships where designers and engineers collaborate from the early stages of concept development through prototype validation.

• Open Feedback Loops: A culture that encourages constructive criticism and shared learning, fostering continuous improvement of designs and prototypes.

• Knowledge Sharing: Encouraging team members to share insights, techniques, and learnings about new tools, technologies, and UX best practices.

📝 Enhancement Note: The team culture likely reflects a blend of design-centric innovation and engineering pragmatism, essential for bringing advanced automotive concepts to life within a large corporate structure.

⚡ Challenges & Growth Opportunities

Challenges:

• Bridging the Digital-Physical Divide: Seamlessly integrating complex digital interfaces with physical controls and sensors presents significant technical and design challenges.

• Rapid Prototyping Cycles: The need to quickly develop and iterate on high-fidelity prototypes under tight project timelines.

• Translating Abstract Concepts: Effectively communicating novel and potentially abstract future mobility experiences through tangible prototypes.

• Navigating Large Organizations: Working within a large enterprise like GM requires strong communication and stakeholder management skills to gain buy-in and drive projects forward.

• Keeping Pace with Technology: Continuously learning and adapting to new prototyping tools, hardware platforms, and emerging interaction paradigms.

Learning & Development Opportunities:

• Advanced Prototyping Techniques: Opportunities to master cutting-edge features in Figma, ProtoPie, and explore new tools for complex simulations.

• Hardware Integration Expertise: Deepen skills in physical computing, embedded systems, and sensor integration for automotive applications.

• Automotive HMI Specialization: Develop deep expertise in the unique challenges and opportunities of designing for the automotive environment.

• Emerging Technologies: Exposure to and hands-on experience with areas like electrification, autonomous driving, AR/VR interfaces, and AI-driven HMI.

• Cross-Functional Exposure: Gain a comprehensive understanding of the automotive product development lifecycle by working closely with engineering and research teams.

📝 Enhancement Note: This role offers significant opportunities to tackle complex, cutting-edge challenges in automotive UX and grow specialized technical and design skills within a leading industry player.

💡 Interview Preparation

Strategy Questions:

• Prototyping Approach: "Describe your process for creating a high-fidelity prototype that integrates a physical button input with a touchscreen interface. What tools would you use, and what are the key technical considerations?"

• Problem-Solving: "Walk me through a challenging prototyping project where you had to overcome significant technical hurdles. How did you approach the problem, and what was the outcome?"

• Collaboration: "How do you typically collaborate with engineers when developing prototypes that require hardware integration? How do you ensure alignment and address technical feedback?"

Company & Culture Questions:

• GM's Future Vision: "What excites you about GM's vision for future mobility (e.g., EVs, autonomous driving), and how do you see UX prototyping playing a role in that future?"

• Design Philosophy: "What are your core principles for designing intuitive and engaging human-machine interfaces, particularly within the automotive context?"

• Innovation: "How do you stay current with emerging technologies and trends in UX design and creative technology, and how do you bring that knowledge into your work?"

Portfolio Presentation Strategy:

• Tell a Story: For each project, frame it as a narrative: the problem, your approach, the challenges, the solution (your prototype), and the impact or learnings.

• Focus on Integration: Clearly articulate and demonstrate the connection between digital and physical elements in your prototypes. Show, don't just tell, how they work together.

• Technical Breakdown: Be ready to explain the technical architecture of your prototypes – what software was used, how it communicated with hardware, what sensors were involved, etc.

• Highlight Your Role: Be specific about your contributions, especially if it was a team project.

📝 Enhancement Note: Interview preparation should heavily focus on demonstrating practical skills through portfolio examples and articulating a clear understanding of the technical challenges and collaborative needs of an HMI prototyping role within automotive operations.

📌 Application Steps

To apply for this Creative Technologist position at General Motors:

• Submit your application through the provided Workday link, ensuring all sections are completed accurately.

• Portfolio Customization: Tailor your resume and portfolio to highlight your experience with Figma, ProtoPie, Arduino, and other relevant prototyping tools. Showcase projects that demonstrate successful integration of physical and digital components.

• Resume Optimization: Clearly articulate your 5+ years of experience in UX design and prototyping, emphasizing accomplishments related to HMI, physical computing, and cross-functional collaboration. Use keywords from the job description.

• Interview Preparation: Practice presenting your portfolio projects, focusing on your technical process, problem-solving approach, and ability to explain complex integrations clearly. Be ready to discuss your understanding of automotive UX challenges.

• Company Research: Familiarize yourself with General Motors' current initiatives in electrification, autonomous driving, and future mobility. Understand their commitment to user experience and innovation.

⚠️ 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.

---