Goddard Product Development
Engineering and product development consultancy that supports medical devices, robotic systems, and industrial automation. Provides integrated services across industrial design, mechanical/electrical/embedded/software engineering, human factors, prototyping, simulation, and manufacturing transfer. Operates an ISO 13485-aligned quality management system and follows a structured multi-phase product development framework.
Industries
Nr. of Employees
medium (51-250)
Goddard Product Development
Services
Management of the full product development lifecycle from discovery and concept through engineering, prototyping, verification/validation, and manufacturing transfer.
Engineers embed with client teams to provide specialized expertise and additional capacity while preserving client product ownership.
Domain-specific heuristic expert reviews, UX research, usability evaluation, and design validation to reduce safety-critical use errors and support regulatory submissions.
Rapid iterative prototyping, controlled pilot builds, and documentation to prepare products for scalable manufacturing.
Reviews and recommendations to optimize designs for assembly, manufacturability, cost, and reliability; includes material and process selection and cost/volume trade-off analysis.
Validation services for robotics and automation programs combining simulation, hardware-in-the-loop testing, domain-randomized simulation, and staged field testing to reduce deployment failures.
Management of the full product development lifecycle from discovery and concept through engineering, prototyping, verification/validation, and manufacturing transfer.
Engineers embed with client teams to provide specialized expertise and additional capacity while preserving client product ownership.
Domain-specific heuristic expert reviews, UX research, usability evaluation, and design validation to reduce safety-critical use errors and support regulatory submissions.
Rapid iterative prototyping, controlled pilot builds, and documentation to prepare products for scalable manufacturing.
Reviews and recommendations to optimize designs for assembly, manufacturability, cost, and reliability; includes material and process selection and cost/volume trade-off analysis.
Validation services for robotics and automation programs combining simulation, hardware-in-the-loop testing, domain-randomized simulation, and staged field testing to reduce deployment failures.
Expertise Areas
- Human factors engineering and usability
- Industrial and product design
- Mechanical engineering and structural analysis
- Electrical engineering and embedded systems
Key Technologies
- CAD and 3D modeling
- Finite element analysis (FEA) and physics simulation
- Rapid prototyping and additive manufacturing (3D printing)
- Injection molding and molding design
News & Updates
Industry conference exhibition (Booth #1486).
Industry event for medical innovation and networking.
Analysis of common causes for robotics and automation failures when systems move from simulation to deployment and guidance for closing the simulation-to-reality gap, including HIL testing and domain-randomization approaches.
Overview of DFM principles, including material selection, manufacturing-process alignment, and cost/volume trade-offs to reduce redesigns and streamline production.
Guidance on integrating human factors and usability into medical device development, including user definition, use environments, and design validation.
Formation of an internal applied research and development team focused on advanced robotics and control applications across medical device precision and industrial automation.
Industry conference exhibition (Booth #1486).
Industry event for medical innovation and networking.
Analysis of common causes for robotics and automation failures when systems move from simulation to deployment and guidance for closing the simulation-to-reality gap, including HIL testing and domain-randomization approaches.
Overview of DFM principles, including material selection, manufacturing-process alignment, and cost/volume trade-offs to reduce redesigns and streamline production.
Guidance on integrating human factors and usability into medical device development, including user definition, use environments, and design validation.
Formation of an internal applied research and development team focused on advanced robotics and control applications across medical device precision and industrial automation.