Altama Unisex Maritime Assault Low Boots, Dive Fin-Compatible Tactical Sneakers with Air Mesh Lining & Water Drainage Port

Altama Unisex Maritime Assault Low Boots, Dive Fin-Compatible Tactical Sneakers with Air Mesh Lining & Water Drainage Port

BUILT FOR AMPHIBIOUS OPS - Built for demanding tactical water missions, the Altama Maritime Assault Low boots use a fin-friendly, narrow profile and a sockless-ready interior to give operators smooth, powerful propulsion in the water; The boot's streamlined shape maximizes mobility during swim segments, surf entries, and water-to-land transitions READY FOR HARSH TERRAIN - These tactical low boots for men and women rely on a tough 1000D Tuff Stuff nylon material paired with non-shine, rust-proof lace hardware to withstand saltwater, deck friction, rocky coastlines, and relentless field use; With a reinforced exterior built to resist rough conditions, these unisex sneakers deliver unmatched resilience SUPERIOR FIT, SUPPORT & COMFORT - Outfitted with an efficient speed-lacing system, these casual sneakers clamp down for a confident fit, while a full-length ABS stability shank provides dependable structure during climbs and uneven terrain; Inside, the Ultron PU contoured insole, engineered to resist water absorption, delivers lightweight cushioning that stays supportive on long missions FAST DRAINAGE & MOISTURE MANAGEMENT - Engineered for amphibious performance, these unisex tactical training shoes feature front non-metallic drain ports that purge water with each flex and air-mesh linings that rapidly wick away internal moisture; Together, they maintain a drier, lighter feel during surf operations, river crossings, and wet-terrain movements HIGH-TRACTION GRIP & WET-SURFACE CONTROL - For confident footing in unpredictable environments, these moisture-wicking outdoor boots are equipped with SEAL Rubber outsoles, a sticky, high-traction compound derived from advanced climbing technology; Additionally, the Zero Drop outsole design provides full contact with the floor for increased stability