The GRACO TE30-1228 QUANTM i30 is a stainless steel electric diaphragm pump designed for heavy-duty fluid transfer applications. It features a 1"BSPT connection, a robust stainless steel fluid section for abrasion and corrosion resistance, and is powered by a 380-480 VAC 3-phase motor. The pump is engineered for reliability and efficiency in demanding industrial environments, such as chemical processing, paints and coatings, and wastewater management.

Key Features:

• Electric Double Diaphragm Pump
• QUANTM i30, 1"BSPT
• Stainless steel fluid section, aluminum center, FEP (Fluorinated Ethylene Propylene) AL Center, SA Seat, PT Ball, PO Diaphragm
• Approx. 114–115 L/min (30 GPM)
• Up to 7 bar (100 psi)
• Designed for integration into industrial fluid transfer systems; compatible with a wide range of fluids including abrasive, corrosive, and heated substances
• Self-priming, seal-less design for smooth flow and minimal downtime
• Stalls under pressure to protect the pump and system
• Plug-and-play design for easy integration
• Up to 8x more continuous torque at low speeds compared to conventional motors
• Engineered for energy efficiency and reduced operational costs
• Durable construction for long service life and reduced maintenance

Applications:
Chemical processing, paints and coatings, wastewater management, general fluid transfer in industrial settings

Installation Notes:

• Using genuine GRACO parts ensures optimal performance, reliability, and longevity of the pump. Non-genuine parts may compromise safety and efficiency.
• Ensure proper alignment and secure mounting of the pump
• Connect to appropriate electrical supply (380-480 VAC 3-phase)
• Use compatible piping and fittings for 1"BSPT connections
• Follow all local electrical and safety regulations
• Perform regular preventative maintenance as recommended by GRACO
• Inspect and clean fluid path components regularly
• Check for wear on diaphragms, balls, and seats
• Replace worn parts with genuine GRACO components
• Monitor system pressure and flow for optimal operation