Induction Heater Assembly for Aerosol Devices With Thermal Isolation

The patent divides the heating system into distinct segments: an inner susceptor that directly contacts the aerosol generating material, an inductor coil for generating the magnetic field, and multiple insulating layers positioned between the susceptor and outer shell. This segmentation allows the heating function to be concentrated in the inner susceptor while isolating the outer components from excessive heat, resolving the contradiction between heating efficiency and outer temperature safety.

The patent introduces insulating layers as intermediary elements between the heat-generating susceptor and the outer shell. These insulating layers act as thermal barriers that mediate the heat transfer process, allowing efficient heating of the material while preventing excessive heat from reaching the outer components. The intermediary insulating layers effectively decouple the heating efficiency from the outer temperature, resolving the technical contradiction.

The patent employs a nested structure where the susceptor is positioned within the inductor coil, and insulating layers are nested between these components. The support member provides a nested framework that holds the inductor coil at a defined distance from the susceptor. This nested arrangement systematically organizes multiple functional layers (susceptor, insulation, coil, support member) in a compact configuration, reducing heat transfer while managing the inherent complexity through structured nesting rather than random addition of components.

The patent utilizes composite material structures, particularly using aerogel as an insulating material which provides exceptional thermal insulation properties in a thin layer. The combination of different materials (aerogel, thermoplastic, air gaps) creates a composite insulation system that achieves effective heat blocking with minimal thickness, thereby reducing heat transfer to outer components while minimizing the increase in device complexity that would result from thicker or multiple separate insulation layers.