Square Mixing Nozzle configurations cover multiple connection styles, 16-32 element designs, 5.3-8.7 mm internal diameters, and compact body lengths around 83-188 mm. The 5.3 mm range typically suits more controlled output and tighter equipment layouts, while 8.7 mm designs are often chosen when material volume or cartridge size increases.
| No. | Part No. | Elements | I.D.(mm) | L(mm) | O.D.(mm) | A(mm) | Inner-core Color |
| A4 | PMF6.0-16 | 16 | 5.3 | 83 | 7.5 | 1.8 | Green/ Gold/pink/white |
| A6 | PMF6.0-24 | 24 | 5.3 | 115 | 7.5 | 1.8 | Green |
| B1 | PMF06-24 | 24 | 5.3 | 127 | 7.5 | 1.8 | Green |
| B2 | PMF08-24 | 24 | 8.7 | 150 | 12 | 3.5 | Green |
| B3 | PMF08-24T | 24 | 8.7 | 165 | 12 | 3.5 | Green |
| B4 | PMF08-32 | 32 | 8.7 | 188 | 12 | 3.5 | Green |
| B65 | MBQ08-18 | 18 | 8.7 | 143 | 12 | 3.5 | Blue |
Cartridge size and ratio: Confirm the Square Mixing Nozzle matches 50-1500 mL dual cartridges and 1:1, 2:1, 4:1, or 10:1 systems before selection.
Internal diameter and body length: Smaller IDs and shorter bodies usually suit tighter layouts, while larger IDs may fit higher-volume dispensing conditions.
Element count: Lower counts often suit shorter mixing paths, while 24-32 elements are usually checked first when mixing distance needs more attention.
Connection and outlet type: Choose the cartridge interface first, then select stepped, straight, or Luer slip output from the required bead control and downstream setup.
Standard Square Mixing Nozzle models cover many two-component dispensing tasks, but some processes need a different body size, connection format, outlet style, or supply format. When cartridge fit and dispensing conditions fall outside the stock range, product-level changes can reduce compromise.
Manufacture to customer drawings covering body dimensions, internal diameter, element count, connection type, outlet style, and confirmed construction details.
Evaluate nozzle geometry around material viscosity, mix ratio, retained adhesive target, cartridge interface, and the intended dispensing condition.
Adjust body length, internal diameter, element count, connection format, or outlet structure to match cartridge standards and equipment.
Provide custom labeling, color identification, or packaging format for private-label distribution, internal sorting, or OEM channel requirements.
Square Mixing Nozzle fits processes where compact body length, lower retained adhesive, and consistent two-component mixing all affect material cost and application control. It is commonly used in automotive assembly, electronics encapsulation, and optical communication work where waste reduction and stable dispensing both matter.
EV battery module potting with thermal conductive adhesives and structural bonding of lightweight body panels require consistent mix ratios across high cycle volumes. Thermal pastes and filled epoxies accumulate inside standard helical elements over extended runs, increasing flow restriction and degrading mix consistency across shifts. The square channel geometry gives filled materials a lower-accumulation flow path, maintaining stable output through full production cycles. For ADAS sensor sealing and powertrain component gasketing, the lower retained volume per shot reduces material cost on high-cycle automated lines.
Thermal conductive adhesives for chip and module heat dissipation, insulating encapsulants for sensitive component protection, and fine-line dispensing on high-density PCBs all require thorough mix homogeneity in a compact nozzle body. If the nozzle body is too long for the dispensing fixture, clearance becomes the limiting factor rather than mix quality. The shorter element stack of square mixing nozzles addresses this constraint without compromising homogeneity, allowing the same nozzle family to cover both fine-pitch and larger-area dispensing tasks on the same production line.
Fiber optic connector bonding with low-residue epoxies and optical device sealing against environmental ingress require precise ratio control and minimal adhesive waste per shot. Excess retained material in the nozzle after each shot raises the risk of ratio inconsistency at the start of the next cycle and increases per-unit cost across repeated connector assembly. The lower retained volume of square mixing nozzles reduces this inter-cycle variation, supporting more consistent curing results where deposit size and placement accuracy are both tightly controlled.
Our blog is designed to help you deepen your knowledge of fluid dispensing processes, optimize your production line, and select the best components for your specific challenges. Explore articles that connect industry insights with practical solutions.
This article will discuss static mixing nozzles, their types, applications, and benefits. We will also explore how static mixing nozzles work and the factors that affect their performance.
Read More →
It'll be a simple process to use epoxy mixing nozzle after you read this step-by-step guide: Step 1: Make the Surface Clean.
Read More →
One of the most common mistakes when using epoxy mixing nozzles is using the wrong size nozzle for the job.
Read More →