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1.Optimized clamping unit provides lower energy consumption and
faster movements for reduced cycle times.
2.The redesigned toggle kinematics for higher efficiency and lower
energy consumption for small and large machines.
3.The redesigned clamping unit providing lower platen stress and
higher mold force stability, reducing mold wear and improving
molded product stability.
4.Fixed platen with centralized force loading and less platen
flexing. Redesigned moving platen providing centralized force
distribution from the toggle system to the mold. The result: higher
rigidity and stability.
5.Providing better lubrication and lower lubrication consumption. A
smooth operation leads to longer lifetime of the clamp. Less
maintenance required.
SPECIFICATION | HJF-140 | |||
A | B | C | ||
Screw Diameter | Mm | 38 | 42 | 45 |
Screw L/D Ration | L/D | 22.1 | 21.6 | 19.5 |
Shot Size(Theoretical) | cm3 | 193 | 227 | 278 |
Injection Weight(PS) | g | 176 | 206 | 252 |
Injection Rate | g/s | 94 | 105 | 135 |
Injection Pressure | MPa | 205 | 159 | 140 |
Screw Speed | rpm | 0~220 | ||
Clamp tonnage | KN | 1400 | ||
Opening stroke | mm | 380 | ||
Space Between Tie Bars | mm | 420*420 | ||
Max.Mold Height | mm | 450 | ||
Min.Mold Height | mm | 170 | ||
Ejector Stroke | mm | 120 | ||
Ejector Tonnage | KN | 33 | ||
Max.Pump Pressure | MPa | 16 | ||
Pump Motor Power | KW | 13 | ||
Heater power | KW | 7.2 | ||
Machine Dimension(L*W*H) | M | 4.5*1.2*1.7 | ||
Machine weight | T | 4.2 | ||
Oil Tank Capacity | L | 230 |
A skilled team of design engineers will be able to brainstorm,
design, and improve upon a variety of solutions to meet the
particular complexities of a specific project. The design team at
Creative Mechanisms has combined decades of experience creating
elegant solutions to complex problems. Meet some of our team here,
here, or here, or visit our Customer Testimonials page to see what
previous and current clients have to say about our product design
capabilities. We think you’ll be impressed.
After a looks-like, feels-like design has been tested and slated
for further production, the mold (or die) needs to be designed for
injection mold manufacturing. Molds are commonly made from these
types of metals:
Hardened steel: Typically the most expensive material to use for a
mold, and generally the longest-lasting (which can drive down price
per unit). This makes hardened steel a good material choice for
products where multiple hundreds of thousands are to be produced.
Prehardened steel: Does not last as many cycles as hardened steel,
and is less expensive to create.
Aluminum: Most commonly used for single cavity "Prototype Tooling"
when a relatively low number of parts are needed for testing. Once
the injection molded parts from this tool are tested and approved,
then a multi cavity steel production tool is produced. It is
possible to get many thousands of parts from an aluminum tool but
typically it is used for lower quantities.