HONEYWELL ML6161A200 ML6161A200 24V DIRECT-COUPLED NON-SPRING RETUR

24V DIRECT-COUPLED NON-SPRING RETUR

The Honeywell ML6161A200 24V DIRECT-COUPLED NON-SPRING RETUR fits the following air cleaner models ML3000 Series Units, ML3010 Series Units, ML3020 Series Units, ML3030 Series Units

The Honeywell ML6161A200 24V DIRECT-COUPLED NON-SPRING RETUR maximizes the rotating capacity of heavy cores and over the length of long rolls, while eliminating the need for continuous belt change outs.

The ML6161A200 is a 24V Direct-Coupled Non-Spring Return magnet valve designed for installation in fiber optic cables for the distribution of high speed digital data and telecommunications. The ML6161A200 is ideally suited for direct connection to terminals or splices. The light weight of this valve makes it a practical solution for through-cable installations. Functional features include 3 terminals (2 normally open [NO] and 1 normally closed [NC]), platinum contacts, and actuating travel of less than 0.79 mm (.03?).

Honeywell, a world leader in performance and comfort, is pleased to introduce the 24 volt direct-coupled non-spring return actuator controlling two non-motorized sliding doors. This motorized drive system combines a wide variety of control options with a simple installation and easy access to setup parameters.

The ML6161A200 is a 24V, direct-coupled, non-spring return clutch. This product has a clamping force of 1,025 lbf (4.54 kN), prime mover speed of 540 RPM, and push/pull rating of 9.0 Inch Pounds (33 N-M).

The ML6161A200 is a 24-V, direct-coupled with non spring return. A 4-wires are located on each of two terminals at the top of terminal box and the wires terminate at the base of the contacts in a complex configuration.

The Honeywell ML6110A100 direct coupled non-spring return actuator (limit switch) is a DC N/O, normally open solid state limit switch. These limit switches provide ON/OFF switching of 24VDC loads with a toggle action. A constant spring force of 2 lbs. (1.04 lbs. slip rating) provides reliable force to ensure high repeatability of travel at the end of stroke in both directions