Homewerks 1 in. FIP x 3/4 in. MHT Brass Garden Valve delivers reliable outdoor water control with durable brass construction and simple, multi-turn precision. Designed for non-potable irrigation tasks, this valve offers a sturdy connection between standard 1" FIP fittings and 3/4" MHT hose threads, making it a practical choice for garden, yard, and irrigation setups.
Key features
- Inlet connection: 1 in. FIP (female iron pipe)
- Outlet connection: 3/4 in. MHT (male hose thread)
- Material & finish: Brass, built to withstand outdoor exposure
- Turn type: Multiturn for fine, adjustable shutoff
- Handle: Wheel handle designed for easy operation, even with gloves
- Maximum pressure: 125 psi
- Maximum temperature: 180°F
- Frost-Proof: No
- Anti-Siphon: No
- Lead content: Leaded
- Usage: For non-potable water applications
- End connections: End 1 Type - FIP; End 2 Type - MHT
- End sizes: End 1 Size - 1 inch; End 2 Size - 3/4 inch
- Packaging: Bulk; 1 valve per package
Why homeowners and irrigation pros choose this valve
Brass construction gives reliable durability in outdoor conditions, resisting corrosion and wear where plastic valves may falter. The multiturn mechanism provides precise control over water flow, enabling you to isolate sections of your irrigation system for maintenance without sacrificing overall system performance. The 1" to 3/4" connection layout is a versatile solution for upgrading or extending existing lines that use standard FIP fittings and hose thread outlets.
Ideal uses and practical applications
- Isolating a garden irrigation zone for repairs or winterizing non-potable water lines
- Connecting a 1" FIP supply line to a 3/4" MHT hose or accessory in yard projects
- Outdoor hose system configurations where a durable, easy-to-turn valve is preferred
- Any non-potable irrigation setup that benefits from a robust brass valve with a comfortable wheel handle
Note: This valve is not frost-proof and is intended for non-potable water applications. Use in appropriate outdoor environments to ensure longevity and optimal performance.