Wearable Tech Design

Smart Backpack Design & Soft Goods + Electronics Integration | AMPL

The AMPL Charging Backpack was one of the first products to fully integrate power systems into a soft goods platform — enabling users to charge devices directly from their bag.

studioFAR led the soft goods system design and electronics integration, developing a manufacturable product that combined textiles, structure, and embedded power into a cohesive, production-ready system.

The project was recognized with two CES Innovation Awards.

Client: AMPL labs
Date: 2015
Services: Technical Backpack Design + Development

The Problem

At the time, integrating electronics into soft goods products was largely uncharted territory. The product needed to:

  • Safely integrate power systems within a textile structure
  • Route cables and components without compromising durability
  • Maintain comfort and usability for daily carry
  • Protect both electronics and user devices
  • Meet manufacturing and safety requirements
  • Be scalable for production

This was not a traditional backpack project.

It required designing a fully integrated wearable system — where electronics and soft goods function as one.

Our Role

studioFAR led the soft goods design and system integration, including:

  • Overall product architecture for electronics integration
  • Internal routing systems for power and cabling
  • Construction design and seam strategy
  • Material selection for durability and safety
  • Integration of rigid and electronic components into textile structure
  • Design for manufacturing (DFM) and production readiness

The focus was on making the system reliable, manufacturable, and intuitive for everyday use.

Approach

1. Electronics Integration Strategy

The core challenge was embedding power into a flexible product.

We developed:

  • Internal routing pathways for cables
  • Secure housing for battery components
  • Separation between electronics and user storage areas

This ensured both functionality and safety.

2. Human-Centered System Design

The product needed to feel like a normal backpack — not a piece of equipment.

We designed for:

  • Ease of use
  • Intuitive access to charging points
  • Balanced weight distribution
  • Comfort during extended wear

The technology had to disappear into the experience.

Approach

3. Material & Safety Considerations

Integrating electronics introduced new constraints.

Material selection accounted for:

  • Heat considerations
  • Durability around electronic components
  • Structural integrity
  • Compatibility with manufacturing processes

4. Construction & Assembly Logic

The product required a clear assembly strategy to integrate electronics efficiently.

We developed:

  • Defined construction sequences
  • Integration points for electronic components
  • Repeatable assembly methods for production

5. Design for Manufacturing (DFM)

Early alignment with manufacturing constraints was critical.

This included:

  • Designing around factory capabilities
  • Reducing complexity where possible
  • Ensuring consistency across units

The goal was to move from concept to scalable product without breakdown.

Where Most Teams Get This Wrong

Products that combine electronics and soft goods often fail due to:

  • Treating electronics as an add-on instead of an integrated system
  • Poor cable routing that breaks over time
  • Lack of separation between components and user storage
  • Designs that cannot be manufactured reliably

Without system-level thinking, these products fail in durability, usability, or production.

Outcome

The AMPL Charging Backpack delivered:

  • One of the first fully integrated smart backpack systems
  • Seamless user experience combining carry and power
  • A manufacturable product platform
  • Industry recognition with two CES Innovation Awards