Paper Substrate Circuit Board for Non-Combustion Flavor Inhaler

The patent applies parameter changes by selecting paper with specific thermal degradation characteristics where the weight loss from room temperature to 290°C is less than 20% of the total weight loss from room temperature to 900°C. This parameter specification ensures the paper maintains structural integrity at operating temperatures while remaining manufacturable.

The patent uses composite materials by combining paper substrate with electrically conductive ink patterns and intermediate layers. This composite structure leverages the manufacturing advantages of paper while adding functional layers that provide heat resistance and electrical conductivity, resolving the contradiction between ease of manufacture and heat resistance.

The patent changes the thermal stability parameter of the paper substrate by selecting papers with specific degradation profiles. The requirement that weight loss to 290°C be less than 20% of total weight loss to 900°C ensures the substrate maintains compositional stability at operating temperatures while retaining flexibility for various applications.

The patent applies beforehand cushioning by pre-selecting paper substrates with inherent thermal stability characteristics before the vaping process begins. The paper's controlled degradation profile acts as a buffer, preventing catastrophic failure at operating temperatures and maintaining substrate integrity throughout the product lifecycle.

The patent introduces an intermediate layer as a mediator between the paper substrate and the electrically conductive ink pattern. This intermediate layer protects the ink pattern from direct thermal stress and paper degradation, maintaining ink integrity during thermal cycles while adding minimal complexity to the manufacturing process.

The patent creates a composite structure with three layers: paper substrate, intermediate layer, and electrically conductive ink pattern. This composite approach distributes thermal stress across layers, protecting the ink pattern while maintaining manufacturing simplicity through a straightforward lamination process.

The patent applies universality by using the intermediate layer to serve multiple functions: it acts as a barrier layer protecting the ink pattern, provides a surface for coating application, and contributes to thermal management. This multi-functionality enables efficient vaporization without proportionally increasing device complexity.

The patent uses composite materials by combining the coating layer with the intermediate layer and paper substrate. The coating layer containing flavor materials and low melting point compounds works synergistically with the underlying layers to achieve efficient vaporization, while the integrated composite structure minimizes overall device complexity.