CAT Footwear Woodward Women's Leather Steel Toe Shoe. The comfort of a retro sneaker combined with the unmatched, rugged durability that defines Cat Footwear. The Woodward leather work sneaker seamlessly unites work to life, day and night, to help you keep going on and off the clock. The Woodward is named after Detroit’s ‘main street’ which has been a thoroughfare for industry in Michigan since the 1800’s. This steel toe is powered by ERGO Technology which combines biomechanics, ingenuity, hardened durability and trademark grit to create a shoe that will provide comfort all day long. The outsole design and compounds used were developed to mimic biomechanical motion, offering flexibility, and provide slip resistance in a variety of work conditions. When you need an athletic safety shoe for your light industrial work, but won’t be limited to a traditional work shoe, the Woodward was built to keep you moving.. ASTM F2413-11 I/75 C/75 Steel Toe protects against impact and compression. ASTM F2413-05 1/75 EH Electrical Hazard Protection rated to protect against open circuits up to 600 volts in dry conditions. Construction provides superior flexibility and lightweight durability.
Features & Benefits of the CAT Footwear Woodward Women's Leather Steel Toe Shoe
- ASTM F2413-11 I/75 C/75 Steel Toe protects against impact and compression
- ASTM F2413-05 1/75 EH Electrical Hazard Protection rated to protect against open circuits up to 600 volts in dry conditions
- Construction provides superior flexibility and lightweight durability
- ERGO Technology provides biomechanically considered features engineered to integrate stability, flexibility and comfort
- Full Grain Leather delivers long-term durability and protection
- Nylon Mesh Lining for added breathability and comfort
- Antimicrobial Sock Liner helps prevent odor
- Sculpted EASE Engineered Foam Footbed offers extra shock absorption
- T1420 Outsole performs against oil and water, and is heat and abrasion resistant
- Slip Resistant Outsole reduces the risk of slips and falls on low traction surfaces