Michael L. Fortner - Bedford TX, US Carl G. Baldwin - Arlington TX, US
Assignee:
Lockheed Martin Corporation - Dallas TX
International Classification:
F42B 1204 F41F 700
US Classification:
102518, 102489, 89 8
Abstract:
A projectile includes a body, a penetrator disposed at least partially within the body for penetrating a target or barrier, and means for propelling the penetrator from the body. A method includes directing a projectile toward a target or barrier and propelling a penetrator from within a body of the projectile. An apparatus for propelling a penetrator from a projectile includes a high energy power source and means for guiding the penetrator from the projectile.
David L. Vos - Apalachin NY, US Carl Baldwin - Mansfield TX, US David R. Darling - Orlando FL, US Brian Kaplun - Endicott NY, US David R. Dorough - Winter Park FL, US
Assignee:
Lockheed Martin Corporation - Bethesda MD
International Classification:
H01Q 1/38 B32B 38/14
US Classification:
343700MS, 156277
Abstract:
Some embodiments relate to a multiband antenna array formed on a flexible substrate. Low frequency antenna elements may be formed using nanoink. High frequency elements may be provided on a prefabricated antenna chip. The antenna array may be heated in a low temperature oven to sinter the nanoink into a solid antenna element. In some embodiments, an adhesive insulation layer may be provided which allows the antenna array to be attached to any surface. In other embodiments, the antenna array may be embedded in a composite material.
- Bethesda MD, US Carl Baldwin - Mansfield TX, US David R. Darling - Orlando FL, US Brian W. Kaplun - Endicott NY, US David R. Dorough - Winter Park FL, US
Assignee:
Lockheed Martin Corporation - Bethesda MD
International Classification:
H01Q 1/38 B32B 37/12
Abstract:
Some embodiments relate to a multiband antenna array formed on a flexible substrate. Low frequency antenna elements may be formed using nanoink. High frequency elements may be provided on a prefabricated antenna chip. The antenna array may be heated in a low temperature oven to sinter the nanoink into a solid antenna element. In some embodiments, an adhesive insulation layer may be provided which allows the antenna array to be attached to any surface. In other embodiments, the antenna array may be embedded in a composite material.