FUNGAL COMPOSITES COMPRISING MYCELIUM AND AN EMBEDDED MATERIAL

1 . A composite comprising:

a) a fungal matrix having a set of fungal matrix mechanical properties; and

b) an embedded material within the fungal matrix, the combination making up a fungal composite, and the embedded material having a set of embedded material mechanical properties;

c) whereby the fungal composite exhibits a set of fungal composite mechanical properties that is greater than either the fungal matrix mechanical properties or embedded material mechanical properties alone, and wherein the mechanical properties comprise tear strength, tensile strength, flexural strength, resistance to separation and resistance to delamination; and

d) wherein the elongation of the composite falls numerically or quantitatively between the elongation of the mycelium matrix alone and the embedded material alone.

2 . The composite of claim 1 wherein the embedded material is one of cotton, silk, wool, manufactured fiber, nylon, polyester, polyamide, viscose, or cellulose.

3 . The composite of claim 1 wherein the composite exhibits isotropic properties, anisotropic properties, orthotropic properties, or a combination thereof in key or specific areas.

4 . The composite of claim 1 wherein the composite comprises an engineered construction or layout of embedded materials such that the composite exhibits specifically engineered properties in pre-selected areas or regions or zones of the composite when considered as a whole.

5 . The composite of claim 1 wherein the composite comprises equivalent, equal, and symmetric properties throughout the entire composite when considered as a whole.

6 . The composite of claim 1 wherein the composite comprises a plurality of regions, wherein each region has distinct characteristics due to having a distinct construction of embedded materials in each region.

7 . The composite of claim 1 wherein the embedded material is integrated in a liquid phase or state.

8 . The composite of claim 1 wherein the embedded material is added in a liquid phase, and chemically reacted to generate a viscous, semi-viscous, or solid phase of the embedded material, or chemically reacted complex derived from the original, embedded material.

9 . The composite of claim 1 wherein the fungal matrix is a mycelium matrix.

10 . A composite comprising:

a) a fungal matrix; and

b) an embedded material selected from the group consisting of cotton, silk, polyester, wool, manufactured fiber, viscose, or cellulose, wherein the embedded material is embedded within the fungal matrix, the combination making up a fungal composite;

wherein the tear strength of the fungal composite is greater than the tear strength of the fungal matrix;

wherein the tensile strength of the fungal composite is greater than the tensile strength of the embedded material; and

wherein the resistance to delamination between the fungal matrix and the embedded material is such that the force required to separate the fungal matrix and the embedded material from each other is greater than or equal to the force required to separate the fungal matrix or the embedded material from themselves.

11 . The composite of claim 10 wherein the tear strength of the fungal composite is greater than or equal to the tear strength of the fungal matrix.

12 . The composite of claim 10 wherein the tensile strength of the fungal composite is greater than or equal to the tensile strength of the embedded material.

13 . The composite of claim 10 wherein the resistance to delamination between the fungal matrix and the embedded material is such that the force required to separate the fungal matrix and the embedded material from each other is greater than the force required to separate the fungal matrix or the embedded material from themselves.

14 . The composite of claim 10 wherein the fungal matrix is a mycelium matrix.

15 . The composite of claim 10 wherein the mechanical properties are selected from the group consisting of tear strength, tensile strength, flexural strength, elongation, resistance to separation or resistance to delamination.

16 . The composite of claim 10 wherein the fungal composite achieves the improved strength through physical and chemical linking of the fungal matrix and the embedded material through methods including but not limited to chain entanglement, penetration of fungal hyphae into the embedded material, surface adhesion of the fungal hyphae onto the surfaces of the embedded material, colonization of the embedded material by the hyphal network, and/or integration and cohesion of the hyphal network to the embedded material though growth phenomenon related to metabolic processes of the hyphae within a nutritional substrate.

17 . A composite comprising:

a) a fungal matrix; and

b) an embedded material within the fungal matrix, the combination making up a fungal composite;

wherein the tear strength of the fungal composite is greater than or equal to the tear strength of the fungal matrix;

wherein the tensile strength of the fungal composite is greater than or equal to the tensile strength of the embedded material; and

wherein the resistance to delamination between the fungal matrix and the embedded material is such that the force required to separate the fungal matrix and the embedded material from each other is greater than the force required to separate the fungal matrix or the embedded material from themselves.

18 . The composite of claim 17 wherein the embedded material is one of cotton, silk, wool, manufactured fiber, nylon, polyester, polyamide, viscose or cellulose.

19 . The composite of claim 17 wherein the elongation of the composite falls numerically or quantitatively between the elongation of the mycelium matrix alone and the embedded material alone.

20 . The composite of claim 17 wherein the composite comprises a plurality of regions, wherein each region has distinct characteristics due to having a distinct construction of embedded materials in each region.

21 . The composite of claim 17 wherein the tear strength and tensile strength of the fungal composite is greater than the tear strength of the fungal matrix.