Advanced Manufacturing Laboratory
Research into modular product systems, reusable electronics platforms, and observable manufacturing infrastructure that enables products to connect, extend, and evolve across generations.
Our Mission
Design a family of interconnected products and platforms that share common mechanical, electrical, software, and operational language—enabling forward and backward compatibility, manufacturing flexibility, and continuous observability of physical systems and operations.
Engineering Principles
- Useful before intelligentMechanical products solve real problems first
- Modular by defaultSystems built from reusable, interchangeable parts
- Interfaces over one-offsCommon standards enable connection across generations
- Evidence before automationObserve and measure before deploying intelligence
- Document everythingDigital records accompany physical systems throughout their life
- Manufacturing independenceInterfaces outlive production methods—design for flexibility
Research Status: All initiatives described below are early-stage research and exploration. Maturity varies by subsystem. No complete systems have been deployed or validated in production. Proposed mechanisms, interfaces, and event vocabularies remain under investigation and may change significantly.
Engineering Cycle
All manufacturing research operates within Summit's engineering cycle:
Manufacturing is not the end of development. Operational evidence returns to the design process and informs the next revision. This cycle repeats, continuously refining both products and processes.
Current Research Initiatives
Modular Product Architecture
Research into common mechanical, electrical, and software interfaces that allow Summit products to connect, adapt, and extend across different mounting environments and use cases.
Research Questions
- →What common dimensional and interface standards would enable mechanical interoperability across diverse products?
- →How can adapter-first architecture reduce one-off designs while preserving product uniqueness?
- →What locking and retention mechanisms balance security, ease of use, and manufacturing feasibility?
- +2 more questions
Technology Areas
⚠ Early-stage research into interface standards • No standards have been finalized or adopted • Candidate mechanisms are under investigation • Manufacturing-method feasibility varies by approach
Sensor-Ready and Intelligent Products
Research into layered product design: useful mechanical products first, with embedded provisions for sensors, connectivity, and adaptive intelligence as capabilities mature.
Research Questions
- →What mechanical features and provisions enable a product to transition from passive to sensor-equipped without fundamental redesign?
- →How can sensor mounting points, electronics compartments, and cable routing be designed for flexibility?
- →What balance between modularity and mechanical simplicity preserves product reliability?
- +2 more questions
Technology Areas
⚠ Sensor-ready provisions are proposed concepts • Not all current products include these features • Integration feasibility depends on product category • Design approaches remain under active investigation
Reusable Electronics and Sensor Platform
Research into standardized embedded controller architecture, power interfaces, sensor connectivity, and firmware patterns that enable electronics modules to be reused across different products.
Research Questions
- →What controller platform and architecture best balance flexibility, cost, power, and development speed?
- →How should power delivery, expansion, and communication interfaces be standardized?
- →What sensor-connection standards reduce wiring complexity and enable hot-swappable modules?
- +2 more questions
Technology Areas
⚠ Platform architecture is under active development • Specific controller and interface choices are not finalized • Sensor modality support depends on application • Production feasibility yet to be validated
Observable Manufacturing Infrastructure
Research into the emerging architecture connecting physical workstations, machines, and processes to operational understanding through sensors, edge computing, and intelligent analysis—enabling predictive maintenance, quality assurance, and continuous process improvement.
Research Questions
- →What sensor network topology best captures operational state without overwhelming data pipelines?
- →How should edge processing distinguish between observational data and actionable events?
- →What operational event vocabulary enables downstream automation and analysis?
- +2 more questions
Technology Areas
⚠ Observable Manufacturing Infrastructure is an emerging research direction • Architectural patterns remain under investigation • Implementation feasibility varies by manufacturing environment • Event vocabulary and data models are proposed, not standardized
Shared Technical Foundations
Capabilities
- →Embedded systems and microcontrollers
- →Sensor integration and signal processing
- →Edge computing and real-time processing
- →Firmware design and deployment
- →Product architecture and modularity
- →Observable systems design
Collaboration Needs
Advanced Manufacturing research requires perspectives from diverse disciplines. We welcome partnerships with:
- •Manufacturing engineers and process specialists
- •Mechanical designers and industrial engineers
- •Electronics and embedded systems engineers
- •Data scientists and analytics specialists
- •Factory operators and manufacturing teams
- •Supply chain and quality specialists
Related Journal Entries
Research thinking, design notes, and decision records from the Advanced Manufacturing Laboratory.
Toward a Summit Modular Standard
Advanced Manufacturing Laboratory
Research into establishing a common mechanical and electrical language that allows future Summit products to connect, adapt, and extend while maintaining manufacturing flexibility and backward compatibility.
Designing the Summit SmartBin
Advanced Manufacturing Laboratory
Design research for Summit SmartBin: a modular, sensor-ready inventory container that demonstrates the architecture of useful mechanical products that can evolve toward observability and intelligence.
Designing for Manufacturing Independence
Advanced Manufacturing Laboratory
Research into designing stable product interfaces that survive transitions between different manufacturing methods: additive, subtractive, molded, extruded, or composite.
Observable Manufacturing Infrastructure
Advanced Manufacturing Laboratory
Research into the emerging architecture connecting physical workstations, machines, and processes to operational understanding through sensors, edge computing, and intelligent analysis.
Product Maturity Model
Summit uses a maturity model to communicate the state of research and development work:
1. Concept
Idea articulated, not yet researched
2. Research
Active investigation of feasibility and approach
3. Prototype
Working proof-of-concept; demonstrates feasibility
4. Validation
Tested under realistic conditions; performance confirmed
5. Production
Manufactured and deployed at scale
6. Observable
System instrumented for monitoring and optimization
7. Continuous Improvement
Evidence-driven refinement based on operational data
Maturity can differ by subsystem. Projects do not always progress linearly. Documentation alone does not advance maturity.
Physical Systems with Digital Memory
Mature Summit products should maintain a digital engineering record containing:
- →CAD files and drawings
- →Bill of materials
- →Assembly and maintenance instructions
- →Material and manufacturing specifications
- →Interface definitions and wiring diagrams
- →Firmware versions and revision history
- →Calibration procedures and validation records
- →Known limitations and design trade-offs
Note: These records do not exist for every concept or prototype. They develop as systems mature through research, prototyping, and validation phases.
Interested in Collaboration?
We actively seek partnerships with manufacturing engineers, product designers, embedded systems specialists, and operators who can help validate and refine these research directions.
Explore Other Research Areas
Return to the Research hub or explore the Assistive Intelligence Laboratory.