Kraig Biocraft Laboratories, Inc. announces that it has delivered the first two hybrid-cross Dragon Silk™ strains to its third-party production partner in Vietnam. These strains were developed to address the most significant immediate hurdle to large-scale production, the robustness of silkworms within the large-scale production environment. These new lines are the first of several planned silkworm strains in hybridization program, which are explicitly designed to increase robustness and cocoon size.

These strains blend the mechanical performance of the Company's original Dragon Silk with the size and robustness of native production silkworm strains. The Company engineered these strains as part of its development program to bring needed increased resiliency to the large-scale production environment. Best practices employed by the most advanced silkworm egg production facilities include utilizing a multi-line cross-mating protocol to generate increased robustness.

The result of first-generation cross-matings yield larger cocoons and more resilient silkworm offspring. As these increased performance attributes only last one generation, it is vital that central silkworm egg production operations sustain each of these separate lines in order to create successive generations of hybrid crosses. Kraig Labs begins its transition to multi-line cross-mating with these two new hybrids.

Once established at the production facilities, the Company will start cross-matings to produce their first two-line production hybrids. Kraig Labs believes this will strengthen its production operations, increase silkworm resiliency, and significantly improve environmental tolerance. As part of the Company's ongoing development efforts to commercialize spider silk production, it is also developing a four-line hybrid-cross program that should further improve yields.

This program is under development at the Company's R&D headquarters located in the USA and is planned to begin rollout in stages later this year following the successful implementation of the two-line hybrid-cross model.