Brizo SensoriPlus Digital Thermostatic 3-Port Shower Rough In - Controls 3 Independent Shower Applications

Brizo R83000E Features:

• Digital controlled thermostatic shower valve
• Provides three individual shower ports with shared settings where available
• Independent temperature and volume control for each outlet port
• Provides option to restrict shower ports, ensuring compliance with water regulations in your area
• Test button for rough-in pressure check
• Diagnostic LED
• Firmware updateable through the user interface when connected to WiFi
• Separate mixing valves independently calibrated for each outlet
• Required digital interface not included

Brizo R83000E Specifications:

• 3/4" Brass tube inlet connections
• 1/2" Brass tube outlet connections
• Max power requirement is 60 Watts
• Maximum operating pressure is 100 PSI
• Maximum water temperature is 150 degree F 
• Max flow for each outlet device is 8 gpm at 60 PSI
• Max flow for all outlets device is 24 gpm at 60 PSI
• Minimum flow for each outlet device or shower head is 1.2 gpm
• Includes: 3-Port Digital Shower Rough 12VDC/60W power adapter with 2.5m wire 35' interface cable interface cable adapter
• Requires 120V outlet
• Required interface 8CN-600S, 8CH-600S, or 8CB-600S (sold separately)

Brizo R83000E Some Important Notes:

• Follow all applicable national and local plumbing, electrical, and building codes
• Some electrical codes require a circuit protected by a ground-fault circuit interrupter (GFCI).
• Use a water heating system capable of handling large flow rates. Flow rate chart on spec sheet
• Locate the shower valve near the shower outlets for optimum performance
• The shower valve is not position sensitive and may be installed vertically or horizontally
• The location must provide unrestricted access for service
• Do not install this valve in an uninsulated attic or crawl space
• Do not install in any area where the ambient temperatures may exceed 104°F or drop below 50°F
• Make sure the shower drain can sufficiently accommodate the full potential flow at any one time.