Cordica Medical

01 / Design & Development

Medical Device
Design & Development

Bring engineering disciplines together around the requirements of the medical device, from early product architecture through prototyping, testing, and development.

Product architectureMultidisciplinary engineeringPrototype + test

02 / Engineering disciplines

The device rarely belongs to one discipline.

Mechanical, electrical, embedded software, cybersecurity, industrial design, human factors engineering, software validation, quality, and risk considerations can shape the same product system.

Active discipline / 01

Mechanical

Develop mechanical designs, components, assemblies, and device architecture with materials, interfaces, and manufacturability in view.

GeometryMechanismsInterfaces

03 / Product architecture

Turn requirements into a system that can be developed and tested.

Engineering decisions affect one another. This conceptual system view makes those relationships visible without implying a finished drawing or generated design.

User interaction and intended use inform requirements that affect the complete product system.

System view / 01Illustrative — not to scale

04 / Development loop

Build. Test.
Learn. Refine.

Development is iterative. Physical prototypes and structured testing help teams evaluate the design while decisions can still evolve.

  1. 01

    Prototype

    Proof-of-concept builds and iterative prototypes, including FDM and SLA, help make design direction tangible.

  2. 02

    Test

    Test-method development and engineering evaluation create a structured way to examine requirements and behavior.

  3. 03

    Learn

    Results inform engineering decisions, expose interfaces, and clarify where the design needs further attention.

  4. 04

    Refine

    The architecture evolves as evidence, usability, risk, and manufacturing considerations become clearer.

05 / Verification + risk

Build evidence around the design.

Test-method development, verification and validation support, software validation, and risk-informed engineering help teams address requirements as the device matures. Regulatory planning and anticipated submission evidence remain connected to those engineering decisions throughout development.

01

Design requirement

Define what the evolving device is expected to address.

02

Test method

Establish an appropriate approach for engineering evaluation.

03

Evidence

Record results that support development, V&V activities, and regulatory submissions where applicable.

04

Design decision

Use evidence, risk, quality, and regulatory considerations to inform what follows.

Risk engineeringQualityRegulatory submissionsVerification + validation support
Engineering drawings reviewed during product development

Development context / precision workstation

06 / Program context

Engineering continues beyond the bench.

Where appropriate to the program, development support may include human factors and simulated use, animal and cadaver lab planning, clinical-study activities, and planning for First-in-Human Studies.

These activities support evaluation and development; they do not imply clinical success, regulatory approval, or a fixed pathway for every program.

07 / Manufacturing readiness

Develop with the production pathway in view.

Manufacturability is easier to address while design decisions remain flexible. Materials, tolerances, component architecture, joining, tooling, inspection, repeatability, and scale can influence both the device and the manufacturing system supporting it.

01

Development

02

Design maturity

03

Manufacturing input

04

Production pathway

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development challenge?