Peter Huber 3-Way Valve System M16x1

The Peter Huber 343295 is a professional-grade 3-way valve manifold designed for precise flow control and isolation in laboratory thermoregulation circuits. This system features one M16x1 inlet and three M16x1 outlets, with each port equipped with its own independent manual ball valve. This allows a single Huber circulator to simultaneously manage up to three external applications—such as reactors, condensers, or heat exchangers—with the flexibility to shut off or adjust each branch without interrupting the entire heating or cooling process.

Key Features:

• Brand: Peter Huber
• Connection Type: All ports M16x1 threaded (1 x Main Inlet, 3 x Individually Valved Outlets)
• Valve Type: Independent manual ball valves for each outlet
• Temperature Range: Reliable operation from -20°C up to +140°C
• Pressure Rating: Maximum operating pressure of 6 bar at +140°C
• Material: High-grade, chemical-resistant construction suitable for water-glycol and silicone oils
• Compatibility: Perfectly suited for Huber Ministat, KISS, and CC series units with M16 connections
• Functionality: Enables simultaneous parallel operation of three devices with individual isolation

This manifold system is an essential tool for high-efficiency laboratories performing parallel synthesis or multi-vessel cooling. The integrated ball valves eliminate the need for complex external plumbing and provide a centralized point of control. Its robust design is engineered to maintain a leak-free seal even under frequent thermal cycling, ensuring the safety and integrity of your research environment.

Frequently Asked Questions

1. What is the Peter Huber 3-Way Valve System M16x1 used for?

It is a professional-grade 3-way valve manifold designed for precise flow control and isolation in laboratory thermoregulation circuits. This system features one M16x1 inlet and three M16x1 outlets, with each port equipped with its own independent manual ball valve. This allows a single Huber circulator to simultaneously manage up to three external applications, such as reactors, condensers, or heat exchangers, with the flexibility to shut off or adjust each branch without interrupting the entire heating or cooling process.

2. Is the Peter Huber 3-Way Valve System M16x1 suitable for precise flow control and isolation in laboratory thermoregulation circuits?

Yes. It is designed for precise flow control and isolation in laboratory thermoregulation circuits, and offers all ports M16x1 threaded (1 x Main Inlet, 3 x Individually Valved Outlets) and independent manual ball valves for each outlet to support this kind of work.

3. What connection type and valve type does the Peter Huber 3-Way Valve System M16x1 have?

It has all ports M16x1 threaded (1 x Main Inlet, 3 x Individually Valved Outlets), independent manual ball valves for each outlet and reliable operation from -20°C up to +140°C, and is supplied under manufacturer part number 343295.

4. What is the Peter Huber 3-Way Valve System M16x1 made from and what features does it include?

It is made from high-grade, chemical-resistant construction suitable for water-glycol and silicone oils. It is compatible with perfectly suited for Huber Ministat, KISS, and CC series units with M16 connections. It also offers maximum operating pressure of 6 bar at +140°C and enables simultaneous parallel operation of three devices with individual isolation.

5. How does the Peter Huber 3-Way Valve System M16x1 compare with the Macherey-Nagel Chromabond Multi 96 Vacuum Manifold for 96-Well Monoblocks with Reservoir Tank, 3 Spacer Pairs, Vacuum Gauge, Control Valve (Material: PP) from Macherey-Nagel?

For applications where compatibility of Perfectly suited for Huber Ministat, KISS, and CC series units with M16 connections is required, the Peter Huber 3-Way Valve System M16x1 is a strong choice. The Macherey-Nagel Chromabond Multi 96 Vacuum Manifold for 96-Well Monoblocks with Reservoir Tank, 3 Spacer Pairs, Vacuum Gauge, Control Valve (Material: PP) offers compatibility of Designed for use with 96-well monoblocks, making it a suitable alternative when that specification better matches the application.