LOCTITE® Stationary Dispense Valves

Features and Benefits

LOCTITE Stationary Dispense Valves with a 6.35 mm or 9.53 mm feed line have a double-acting cylinder which allows for adjustable opening and closing speeds for increased dispensing control.
LOCTITE® Stationary Dispense Valves with a 6.35 mm (item #88644) or 9.53 mm (item #88645) feed line are slim, lightweight, patented, seal-less dispense valves. They have a double-acting cylinder which allows for adjustable opening and closing speeds for increased dispensing control. One of these stationary applicators requires a controller and product reservoir, and can be used with an integrated dispense reservoir to form a complete dispensing system (item #2814025 or 2814024). Adjustable suck-back feature eliminates stringing and dripping.
  • Easy integration with LOCTITE reservoirs and controllers
  • Slim, lightweight, seal-less design
  • Adjustable opening and closing speeds for increased dispensing control
  • Modular design of product shut-off valve and valve actuator provides for on-line serviceability
  • Included in the Box: (1) Stationary Dispense Valve, (1) needle kit, (1) anti-bubbler adapter & sleeve, (1) operating manual
  • Specifically designed for precision dispensing of LOCTITE adhesives
  • Can be used in stationary mounted, robotic, or handheld applications
  • The 6.35 mm valve is compatible with all LOCTITE low-to-medium viscosity (< 15,000 mPa·s) products
  • The 9.53 mm valve is compatible with all LOCTITE low-to-medium/high viscosity (< 80,000 mPa·s) products
Read More

Technical Information

Air input pressure, Recommended 60.0 - 80.0 psi
Applications Dispensing adhesives
Dispense patterns Beads, Dots, Drops
Fluid pressure, Recommended 80.0 psi
Key characteristics, Recommended Stroke adjustment, Vacuum suck-back, Viscosity: low to medium viscosity
Operating type High Precision, Pressure-time
Used to dispense, Recommended Adhesives-gel, Cyanoacrylates, Light cure acrylics, Retaining compounds, Threadlockers
Viscosity, Recommended 0.0 - 15000.0 mPa·s