Engineering & Innovation

Meet the program where it is.

We support programs from early concept through manufacturing transfer. DFM is incorporated throughout development to help prepare products and processes for reliable manufacturing—wherever the engagement begins.
An engineer working on a medical device project in CAD An engineer working on a medical device project in CAD
Where we engage

One connected path from concept to commercial manufacturing.

ATL Medical receives programs at every stage, from initial concept through manufacturing transfer, then connects the disciplines needed to support the program. Internally, we organize every program into three program categories—Design & Development, New Product Introduction, and Manufacturing Transfer—so priorities and execution stay predictable.

Six steps

Concept development

Design & engineering

Prototyping & iteration

DFM & process development

Manufacturing transfer

Commercial manufacturing

Concept development

Requirements, architecture options, and early feasibility are explored with your team before a design direction is set.

Design & engineering

Detailed engineering of the device and its subsystems — mechanical, electrical, interconnect, and imaging elements as the program requires.

Prototyping & iteration

Prototypes built and refined to test the design against its requirements.

DFM & process development

DFM is incorporated throughout development to prepare products and processes for reliable manufacturing, with processes developed alongside design.

Manufacturing transfer

Processes and documentation move the program into production.

Commercial manufacturing

Ongoing production at commercial scale, from manual assembly designed with a future automation path to fully automated lines, depending on volume and complexity.

How we work

How we work with your team.

Engineer to engineer, and based on evidence. The team works through requirements, design, analysis, prototype testing, design reviews, verification, process development, and phase reviews together via email, video conferencing, and project-status systems. The program's specific needs set the collaboration cadence, rather than a fixed meeting schedule.

Anywhere from initial concept through manufacturing transfer. Some programs arrive as an early idea; others arrive with a design in hand that needs to be prepared for production.

DFM is built into development to prepare products and processes for reliable manufacturing. It isn't a single gate at the start; it's part of the conversation at almost every stage.

Enabled by data-driven operations and ATL's Manufacturing Execution System (MES)—decisions are grounded in operational data, not assumptions.

Depending on the program, DFM covers specifications and requirements plans, CAD and drawings, DFMEA, tolerance and FEA analyses, design-review reports, prototypes, engineering-verification summaries, inspection plans and reports, test plans and reports, and process-validation documents. For molded parts, DFM also covers tooling, parting lines, core, cavity, and sliders, ejection, cooling, cavity marking, cosmetic requirements, and mold-flow analysis.

FDM, SLA, and micro-SLA printing, a toolroom, molding, and pre-production capability. Iteration timing depends on the prototype type and site.

Product and process engineering work together through process validation. The handoff to Sustaining Engineering typically happens at production launch or phase closure, and from there, Sustaining Engineering is the program's ongoing contact for change management, supply chain, cost-down and continuous improvement, product stewardship, and record ownership.

By the numbers

Decades of engineering discipline.

30+

Years of engineering & manufacturing

90+

Technical files supported

3

Program categories

6

Sites, one engineering standard

Rendering of an imaging endoscope with Chip-On-Tip camera, two LEDs for illumination, and open channel for additional instruments. Rendering of an imaging endoscope with Chip-On-Tip camera, two LEDs for illumination, and open channel for additional instruments.
Program example · Parallel product and process development

Turning miniature imaging into a scalable device platform.

On a next-generation hysteroscopy system built around a miniature chip-on-tip camera architecture, ATL Medical's product development and manufacturing teams worked in parallel. Camera-to-board integration, complete-device engineering, and manufacturing process development moved forward together, so the system was being prepared for commercial production while the design was still maturing rather than after it was finished.

Want to see this process in action?

Talk to an ATL Medical engineer about your program.