PTFIX distribution blocks
Save space and time with your potential distribution by using Push-in distribution blocks

The new PTFIX distribution blocks from Phoenix Contact can be used straight away without manual bridging, thus enabling space savings of up to 80 percent. The 1.5 mm² and 2.5 mm² distribution blocks are available with various numbers of positions and can be arranged in series without loss of pitch. Flexibly extend your potential with two-position standard jumpers.
The distribution blocks are also available with DIN-rail, direct or adhesive mounting, allowing you to flexibly build any application. Pre-treated or rigid conductors are connected quickly with the tool-free push-in direct connection technology. Transverse installation on the DIN rail and the compact design achieves space savings of up to 50 percent.
Distribution and power blocks with 6, 12, and 18 terminal points are available in eleven colors for clear, intuitive, and safe installation. The marking of all terminal points ensures a very clear wiring layout. The PTFIX distribution blocks therefore ensure flexible and cost-effective load and control current distribution.
Your advantages
- Ready-to-use blocks for rapid mounting without manual bridging, and time savings of up to 80%
- Flexible configuration in your application through various mounting options: DIN rail mounting, direct mounting or adhesive bonding
- Time-saving pre-treated and solid conductor connection, thanks to tool-free direct Push-in connection technology
- Transverse mounting saves up to 50% space on the DIN rail
- Color assignment of conductor and terminal point for an intuitive and secure installation with eleven colors
- Connect in a series without division loss and flexibly expand potential with standard jumpers
- Testing options for all common test probes
The Field Analog process indicators allow you to monitor and display analog and temperature signals as well as control them via digital and analog inputs and outputs. The field devices enable you to acquire and convert the signals from resistance thermometers, thermocouples, and resistance-type sensors and voltage sensors directly on site.
The new mobile printing system from Phoenix Contact has now made this possible. The THERMOMARK PRIME is optimally suited for mobile use with its integrated marking software, independent energy supply and a user interface with intuitive operation. Its compact size and practical accessories make the THERMOMARK PRIME the ideal companion for any task – whether in stationary use or on the go while in the field.
With the Termitrab complete product range, Phoenix Contact now offers the the narrowest surge protective devices on the market. They are suitable for MCR applications starting from an overall width of just 3.5 mm. This means that the protective devices can protect up to 572 signals against surge voltages on just one meter of DIN rail.
As Mr. Ronald Bent – CTO at PHOENIX CONTACT – said: “Inspiring innovations are born from the creative tension between the possibilities presented by new technologies and the requirements of the various markets. With that in mind, the trend toward digitalization faces a world full of challenges: population growth, the rise of megacities, dwindling resources. We need more energy, clean water, and clean air. We believe that digitalization offers the potential to overcome these challenges. The intelligent networking of business processes, components, systems, things, and people is the key to the solutions of the future. Our highlights for 2017 are making an important contribution here.”
Over 40 parameters can be adjusted individually with the new power supplies of the Quint Power series from Phoenix Contact. The devices can be ordered from the factory with customized parameters that vary from standard settings. The integrated NFC interface makes changing the signaling thresholds and characteristic curves more convenient than ever before.

Moreover, Phoenix Contact shed light on surge protection and the latest devices that help protect against transient and high-energy voltage peaks.