LaserCUSING® enhancement

The patented LaserCUSING® process from Concept Laser is used to create high-precision mechanically and thermally resilient metallic components. The fusing process generates components layer by layer using 3D CAD data.

In this process, fine metal powder is melted locally by a high-energy fiber laser. The material solidifies after cooling. The contour of the component is created by redirecting the laser beam using a mirror redirection unit (scanner). The part is built up layer by layer (with a layer thickness of 15 – 500 μm) by lowering the bottom of the build chamber, applying more powder and then melting again. The LaserCUSING® layer construction process allows the fabrication of both mould inserts with close-contour cooling and direct components for the jewellery, medical, dental, automotive, aerospace, and more sectors. This applies to both prototypes and batch parts.

Our engineers at Thikspace Technologies have managed to bring such enhancements to this – otherwise revolutionary technology – to gain advantage in efficiency, precision, and speed of fabrication. The hardware tuning consists of replacing certain parts of the machinery with ones that are custom made by our engineers, which are enhanced for more efficiency, enabling a more accurate (with a layer thickness of up to 10μm) replication of CAD models. The fine tuning of software includes the following attributes: laser power, scan speed, spacing trace, spot size and offset to original contour. These configuration options enable our customers to achieve application-based optimizations for a perfect result.

Hardware Tuning for customized manufacturing

Thinkspace Technologies provides the most advanced and comprehensive 3D digital design and fabrication solutions available today.With comprehensive 3D tools for design, engineering and preparation for manufacturing, Thinkspace Technologies empowers rapid, accurate product development. The Thinkspace Technologies developing and customization services allow the ideas to go from concept to manufacturing  without compromise.  Our engineers deliver top-end software and hardware solutions with comprehensive assembly, parametric and editing possibilities. The unique development services empower our customers to manufacture highly specialized products at competitive rate.

The main problem of retracting the raw material with the feeder is that it was your strength that determined how the locking mechanism constricts the raw material on the transfer roller. If too weak, the material could slip, if too strong, plastic pieces might occlude the transmission mechanism thereby due to the increasing friction, it slowed down the smooth raw material flow that is required for printing high quality products. The solution to this problem so far is that the locking system that impacts the raw material should be held by a spring in constant tensioned force, eliminating the arising problems from the possible uneven thickness of the raw material.

This solution is not exempt from cleaning sometimes the feeder mechanism. The feeder – holding more precisely with constant force – does one thing better than the previous version: thanks to the more precise material movement there is a much smaller chance that after retracting the raw material from the print head the extruder will not get material again during the refill. Because of this problem, in some print softwares enabling the retraction function is not default. If you enable it, the feeder will retract the raw material from the print head every time when the head is only moving, not putting any material down. If the retract function is active and the feeder is capable of transmitting the material both ways, the stringing phenomenon ceases almost completely.

The melted raw material can make the extruder mechanism blocked. In the new version a copper pipe is connected into the teflon piece. This upgrade makes the print head longer so after its installation the upper edge of the Z axis needs to be calibrated again.

Blobbing is when small bulges appear on the printed model. It previously was caused by that some printer software / firmware combination polled the measured temperature of the extruder head too fast while printing, causing the blockage of the USB “data pipe” and errors of the print head. Using these applications, it was enough to close the monitoring the window therefore the thermometer polling commands were blocked.

The propulsion is transfered by 2×2 long rubber belts to the axes moving the print head. After a longer period of usage, the belts might elongate which will cause that the positioning of the head will not be as precise as it was new. For avoiding this problem, you should use 4 clips according to the looseness of the belts.

During 3D printing you see the way the head creates the object on plate. The solution is to add 1-1 LED stripe to the bottom of the machine and to its two side columns.

The idea behind having a heated build plate is to improve the bond between the plastic and the build plate and reduce warping. As the raw material sticks better to the heated plate the created model stands still on it and there’s no further need to use protection stripes on the acrylic plate. The heating element is packed under a glass or a completely flat 6 mm thick aluminum plate, as they have much better thermal conductivity (the ready model can only be removed from the heated platform after it cooled down. Removable from the acrylic surface. The evenness is also important as a 0.05 mm difference can cause problems during the printing. We use borosilicate for the glass plate tuning. In case of using aluminium, it means a 6 mm thick plate.

A last temperature-related setting is heating the unused extruder while only printing with one extruder. This prevents the cold, idle extruder from hitting a print that has creeped up slightly and knocking it off the plate. When the print sticks well – bumping against the print and moving the glass build plate slightly (though it sits on springs, the plate can move a little in the x and y direction with some force). A hot extruder moves these edges out of the way a bit more easier. Users need to empty the idle extruder because it can ooze little bits of another material into the print.

Tuning The Software

Printers with the 3D software comes pre-loaded with 3 profiles: two for printing with either the left or right extruder and one for printing with both extruders at the same time. Both the manual and website offer useful information on the many different settings. To do highly customized print we can optimize the material setting, e.g. to PLA plastic instead of ABS because PLA is known for it’s ability to print smaller details. We can efficiently develop special settings for several out-of-the-box-prints with standard profiles to the customers’ special requirement.

It’s worth checking whether the printer works accurately or not. Our transparent calibration pyramid was created for this reason. It is developed to run special performance and quality testing before customized high precision manufacturing process is started.

We have created processes for improving the feeder block:

This a tuning helps rewinding the axis which forwards the filament when the head is empty and the hot extruder head need to be fed by hand. It prevents that the plastic fiber yanks the plastic pipe (which is around itself) during the printing process. Our solution fixes the feeder mechanism to its proper place to create higher accuracy printed objects.

This small application extension helps adjusting the X and Y axes to each other even in the case of the problematic complex object structures.

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CL/TST4 Modulon
Build envelope: 400 x 400 x up to 425 mm3 (x, y, z)(further z-axis lengths in development)
Layer thickness: 20 – 100 μm
Production speed: max. 4,5 m/s (depending on material, density, layer thickness)
Laser system: 3D optics with maximum power of 4 x 1,000 W
Focus diameter: 50 μm – 500 μm (dynamic focus adjustment)
Filter system: integrated with 2 x 20 m2 filter surface
QM modules:
  • QM Meltpool 3D, QM Live View, QM Atmosphere,
  • QM Powder, QM Documentation
Dimensions: 2158 x 2850 x 2365 mm3 (W x D x H)
Weight: approx. 5,700 kg
Operating conditions: 15 – 35°C
Materials:
  • CL 20ES Stainless steel (1.4404)
  • CL 41TI ELI Titanium alloy (TiAl64V ELI)
  • CL 100NB Nickel-based alloy (Inconel 718)
CL/TST2 Titanus
Build envelope: 800 x 400 x 500 mm3 (x, y, z)
Layer thickness: 30 – 150 μm
Production speed: up to 120 cm3/h (depending on material, parameter, geometry)
Laser system: 2 fiber lasers, each 1,000 W (cw)
Max. scanning speed: 7 m/s
Focus diameter: approx. 100 – 500 μm
Heating: 9 kW, maximum temperature 200°C
Connected loads:
  • Average power consumption 13 kW
  • Power connection 3/N/PE AC 400 V, 63 A, 50 – 60 Hz
Inert gas supply:
  • 1 gas connection available
  • N2 generator, external (optional)
Inert gas consumption: approx. 17 – 34 l/min
Dimensions: 5235 x 3655 x 3604 mm3 (W x H x D)
Weight: approx. 9200 kg (tare weight)
Operation conditions: 15 – 25°C
Necessary peripheral equipment: Sieving station, powder silo
Materials:
  • CL 31AL / CL 32AL Aluminium (AlSi10Mg)
  • CL 41TI ELI Titanium alloy (TiAl6V4 ELI)
  • CL 100NB Nickel-based alloy (Inconel 718)
CL/TST SLK
Build envelope:
  • 50 x 50 mm2 (x, y)
  • 70 x 70 mm2 (x, y)
  • 90 x 90 mm2 (x, y)
  • z = 80 mm
Layer thickness: 15 – 50 μm
Production speed: 1 – 5 cm3/h (depending on material)
Laser system: Fibre laser 100 W (cw)
Max. scanning speed: 7 m/s
Focus diameter: approx. 50 μm
Fixation of the building plate: mechanical (clamping system being prepared)
Connected loads :
  • Power consumption 1.5 kW
  • Power supply 1/N/PE AC 230 V, 16 A
Inert gas supply: 1 gas connection provided / Nitrogen or Argon
Inert gas consumption: approx. 0,6 – 0,8 l/min*
Dimensions: 705 x 1848 x 1220 mm3 (W x H x D)
Weight: approx. 600 kg
Operating conditions: 15 – 35°C
Materials:
  • CL 20ES Stainless steel (1.4404)
  • remanium® star CL Cobalt-chromium alloy (Dentaurum)
  • CL 80CU Bronze
  • Yellow gold 18 carat 3N
  • Rose gold 18 carat 4N
  • Red gold 18 carat 5N
  • Platinum 950 ‰ Platinum alloy
  • Silver alloy 930 ‰ Silver alloy
CL/TST PRO
Build envelope: 250 x 250 x 280 mm3 (x, y, z)
Layer thickness: 20 – 80 μm
Production speed: 2 – 35 cm3/h (depending on material / laser power)
Laser system: 1 x 200 W (cw), optional 1 x 400 W (cw)
Scanning speed: 7 m/s, 4,5 m/s for variable focus move
Focus diameter: 50 μm, optional variable focus move (50 μm – 500 μm)
Reference clamping system (optional): EROWA, System 3R / others on request
Connected loads: Max. power consumption 7.4 kW
Power supply: 3/N/PE AC 400 V, 32 A, compressed air 5 bar
Inert gas supply: 2 gas connections provided N2 generator external (optional)
Inert gas consumption: < 1 m3/h
Filtering system: integrated, with a 20 m2 filter surface
Dimensions: 2542 x 1818 x 1987 mm3 (W x D x H)
Weight: approx. 2.400 kg
Operating conditions: 15 – 35°C
Materials:
  • CL 20ES Stainless steel (1.4404)
  • CL 31AL Aluminium alloy (AlSi10Mg)
  • CL 41TI ELI Titanium alloy (TiAl64V ELI)
  • CL 42TI Pure titanium Grade 2
  • CL 50WS Hot-work steel (1.2709)
  • CL 91RW Stainless hot-work steel
  • CL 92RW Precipitation hardening stainless steel (17-4 PH)
  • CL 100NB Nickel-based alloy (Inconel 718)
  • CL 101NB Nickel-based alloy (Inconel 625)
  • CL 110CoCr Cobalt-chromium alloy (F75)
  • remanium® star CL Cobalt-chromium alloy (by Dentaurum)
  • rematitan® CL Titanium alloy (by Dentaurum)
CL/TST2 PRO
Build envelope: 250 x 250 x 280 mm3 (x, y, z)
Layer thickness: 20 – 80 μm
Production speed: 2 – 35 cm3/h (depending on material / laser power)
Laser system: 2 x 200 W (cw), optional 2 x 500 W (cw)
Scanning speed: 7 m/s, 4,5 m/s for variable focus move
Focus diameter: 50 μm, optional variable focus move (50 μm – 500 μm)
Reference clamping system (optional): EROWA, System 3R / others on request
Connected loads: Max. power consumption 7.4 kW
Power supply: 3/N/PE AC 400 V, 32 A, compressed air 5 bar
Inert gas supply: 2 gas connections provided N2 generator external (optional)
Inert gas consumption: < 1 m3/h
Filtering system: integrated, with a 20 m2 filter surface
Dimensions: 2542 x 1818 x 1987 mm3 (W x D x H)
Weight: approx. 2.400 kg
Operating conditions: 15 – 35°C
Materials:
  • CL 20ES Stainless steel (1.4404)
  • CL 31AL Aluminium alloy (AlSi10Mg)
  • CL 41TI ELI Titanium alloy (TiAl64V ELI)
  • CL 42TI Pure titanium Grade 2
  • CL 50WS Hot-work steel (1.2709)
  • CL 91RW Stainless hot-work steel
  • CL 92RW Precipitation hardening stainless steel (17-4 PH)
  • CL 100NB Nickel-based alloy (Inconel 718)
  • CL 101NB Nickel-based alloy (Inconel 625)
  • CL 110CoCr Cobalt-chromium alloy (F75)
  • remanium® star CL Cobalt-chromium alloy (by Dentaurum)
  • rematitan® CL Titanium alloy (by Dentaurum)
Objet24
Model material:
  • Rigid Opaque white (VeroWhitePlus)
Support material: FullCure® 705 non-toxic gel-like photopolymer support
Material cartridges: Sealed four 1 Kg (2.2 lbs) cartridges
Size and weight:
  • Machine: 82.5 × 62 × 59 cm (32.28 × 24.4 × 23.22 in); 106Kg/234lb
  • Tray size: 240 × 200 × 150 mm (9.45 × 7.87 × 5.9 in)
Net Build size: 234 x 192 x 148.6 mm (9.21 x 7.55 x 5.85 in)
Workstation compatibility: Windows XP, Windows 7, Windows 8
Network connectivity: Ethernet TCP/IP 10/100 base T
Jetting heads: SHR (Single Head Replacement), 2 heads
Power Requirements: Single phase:
  • 100-120V~; 50-60Hz; 7A
  • 200-240V~; 50-60Hz; 3.5A
Regulatory Compliance: CE/FCC/RoHS
Operational Environment: Temperature 18 C - 25 C (64 F - 77 F); Relative Humidity 30 - 70 %
Objet30
Model material:
  • Rigid Opaque white (VeroWhitePlus)
  • Rigid Opaque blue (VeroBlue)
  • Rigid Opaque black (VeroBlack)
  • Rigid Opaque gray (VeroGray)
  • Polypropylene-like (DurusWhite)
Support material: FullCure 705 non-toxic gel-like photopolymer support
Material cartridges: Sealed four 1 Kg (2.2 lbs) cartridges
Net build size: 294 x 192 x 148.6 mm (11.57 x 7.55 x 5.85 in.)
Layer thickness: 28 microns (0.0011 in.)
Build resolution: X-axis: 600 dpi; Y-axis: 600 dpi; Z-axis: 900 dpi
Accuracy: 0.1 mm (0.0039 in.) may vary depending on part geometry, size, orientation, material and post-processing method
Size and weight:
  • Machine: 82.5 × 62 × 59 cm (32.28 × 24.4 × 23.22 in.); 106Kg/234lb
  • Tray size: 300 × 200 × 150 mm (11.81 × 7.87 × 5.9 in.)
Workstation compatibility: Windows XP, Windows 7, Windows 8
Network connectivity: Ethernet TCP/IP 10/100 base T
Jetting heads: 2 printing heads; SHR (Single Head Replacement)
Power requirements: Single phase:
  • 100-120V~; 50-60Hz; 7A
    200-240V~; 50-60Hz; 3.5A
Regulatory compliance: CE/FCC/RoHS
Operational environment: Temperature 18 C-25 C (64 F-77 F); relative humidity 30-70 % (non-condensing)
Objet30 PRO
Model materials:
  • Transparent rigid (VeroClear)
  • Rigid Opaque white (VeroWhitePlus)
  • Rigid Opaque blue (VeroBlue)
  • Rigid Opaque black (VeroBlack)
  • Rigid Opaque gray (VeroGray)
  • Polypropylene-like (DurusWhite)
  • High Temperature (RGD525)
Support material: FullCure 705 non-toxic gel-like photopolymer support
Material cartridges: Sealed four 1 Kg (2.2 lbs) cartridges
Net build size: 294 x 192 x 148.6 mm (11.57 x 7.55 x 5.85 in.)
Layer thickness: 28 microns (0.0011 in.); 16 microns for VeroClear material (.0006 in.)
Build resolution: X-axis: 600 dpi; Y-axis: 600 dpi; Z-axis: 900 dpi
Accuracy: 0.1 mm (0.0039 in.) may vary depending on part geometry, size, orientation, material and post-processing method
Size and weight:
  • Machine: 82.5 × 62 × 59 cm (32.28 × 24.4 × 23.22 in.); 106Kg/234lb
  • Tray size: 300 × 200 × 150 mm (11.81 × 7.87 × 5.9 in.)
Workstation compatibility: Windows XP, Windows 7, Windows 8
Network connectivity: Ethernet TCP/IP 10/100 base T
Jetting heads: 2 printing heads; SHR (Single Head Replacement)
Power requirements: Single phase:
  • 100-120V~; 50-60Hz; 7A
  • 200-240V~; 50-60Hz; 3.5A
Regulatory compliance: CE/FCC/RoHS
Operational environment: Temperature 18 C-25 C (64 F-77 F); Relative Humidity 30-70 % (non-condensing)
Objet30 Prime
Model materials:
  • Bio-compatible (MED610)
  • High Temperature (RGD525)
  • Rigid Opaque white (VeroWhitePlus)
  • Rigid Opaque blue (VeroBlue)
  • Rigid Opaque black (VeroBlack)
  • Rigid Opaque gray (VeroGray)
  • Rubber-like (TangoGray and TangoBlack)
  • Simulated Polypropylene (Durus and Endur)
  • Transparent rigid (VeroClear and RGD720)
Support material: FullCure 705 non-toxic gel-like photopolymer support
Material cartridges: Four sealed 1 Kg (2.2 lbs) cartridges
Net build size: 294 x 192 x 148.6 mm (11.57 x 7.55 x 5.85 in.)
Minimum layer thickness: 28 microns (0.0011 in.) for Tango materials; 16 microns (.0006 in.) for all other materials
Build resolution: X-axis: 600 dpi; Y-axis: 600 dpi; Z-axis: 1600 dpi
Accuracy: 0.1 mm (0.0039 in.) may vary depending on part geometry, size, orientation, material and post-processing method
Size and weight: Machine: 82.5 × 62 × 59 cm (32.28 × 24.4 × 23.22 in.); 106Kg/234lb
Workstation compatibility: Windows XP, Windows 7, Windows 8
Network connectivity: Ethernet TCP/IP 10/100 base T
Jetting heads: 2 printing heads; SHR (Single Head Replacement)
Power requirements: Single phase:
  • 100-120V~; 50-60Hz; 7A
  • 200-240V~; 50-60Hz; 3.5A
Regulatory compliance: CE/FCC/RoHS
Operational environment: Temperature 18 C-25 C (64 F-77 F); Relative Humidity 30-70 % (non-condensing)
Objet Eden260vs
Model materials:
  • Transparent rigid (VeroClear and FullCure RGD720)
  • Rubber-like (Tango family)
  • Rigid Opaque (Vero family)
  • Simulated Polypropylene (Endur and DurusWhite)
  • High Temperature (RGD525)
Support material: SUP707 soluble support works with VeroGray, VeroBlue and VeroClear in high-quality mode, or VeroWhitePlus in high-speed or high-quality mode. Other materials and print modes work with SUP705 gel-like photopolymer support.
Material cartridges: Sealed four 3.6 kg (7.9 lbs) cartridges
Net Build size: 255 × 252 × 200 mm (10.0 x 9.9 x 7.9 in.)
Layer thickness: Horizontal build layers as fine as 16 microns (0.0006 in.)
Build resolution: X-axis: 600 dpi; Y-axis: 600 dpi; Z-axis: 1600 dpi
Accuracy: 20-85 microns for features below 50 mm; up to 200 microns for full model size (for rigid materials only, depending on geometry, build parameters and model orientation)
Workstation compatibility: Windows 7 32/64-bit
Network connectivity: LAN – TCP/IP
Size and weight: 870 × 735 × 1200 mm (34.3 x 28.9 x 47.2 in.); 264 kg (582 lbs)
Jetting heads: SHR (Single Head Replacement), 8 units
Power requirements: 110–240 VAC 50/60 Hz; 1.5 KW single phase
Operational environment: Temperature 18 C-25 C (64 F-77 F); relative humidity 30-70% (non-condensing)
Objet Connex
Model materials:
  • Transparent rigid (VeroClear)
  • Rubber-like (Tango family)
  • Transparent general-purpose (RGD720)
  • Rigid Opaque (Vero family)
  • Polypropylene-like (Endur and Durus)
Digital model materials: More than 100 digital materials can be manufactured on the fly including:
  • Engineering plastics such as Digital ABS Green material (RGD5160-DM) fabricated from RGD515 and RGD535
  • Transparent shades and patterns
  • Rigid opaque shades
  • Rubber-like materials with varying Shore A values
  • Polypropylene with improved thermal resistance
Support material: SUP705 non-toxic gel-like photopolymer support
Material cartridges: Materials are sold in cases of four sealed 3.6 kg (7.9 lb) cartridges. VeroClear, Tango family, Durus and components of Digital ABS Green material also available as 1.44kg (3.17 lb) net weight in a 3.6kg case. Two different model materials can be loaded simultaneously, and printers are front-loading for quick replacement.
Net Build size:
  • Objet260 Connex: 255 × 252 × 200 mm (10.0 x 9.9 x 7.9 in.)
  • Objet350 Connex: 342 × 342 × 200 mm (13.4 x 13.4 x 7.9 in.)
  • Objet500 Connex: 490 × 390 × 200 mm (19.3 × 15.4 × 7.9 in.)
Layer thickness: Horizontal build layers as fine as 16-microns (0.0006 in.)
Build resolution: X-axis: 600 dpi; Y-axis: 600 dpi; Z-axis: 1600 dpi
Printing modes:
  • Digital Material: 30-micron (0.001 in.)
  • High Quality: 16-micron (0.0006 in.)
  • High Speed: 30-micron (0.001 in.)
Accuracy: 20-8 5um for features below 50 mm; up to 200 um for full model size (for rigid materials only, depending on geometry, build parameters and model orientation)
Input format: STL, OBJDF and SLC File
Workstation compatibility: Windows 7
Network connectivity: LAN – TCP/IP
Size and weight:
  • Objet 260 Connex: 870 × 735 × 1200 mm (34.3 x 28.9 x 47.2 inch); 264 kg (582 lbs)
  • Objet350 Connex: 1420 × 1120 × 1130 mm (55.9 × 44.1 × 44.5 in.); 500 kg (1102 lbs)
  • Objet500 Connex: 1420 × 1120 × 1130 mm (55.9 × 44.1 × 44.5 in.); 500 kg (1102 lbs)
Print heads: 8 units
Power Requirements: 110–240 VAC 50/60 Hz; 1.5 KW single phase
Operational Environment: Temperature 18 C-25 C (64 F-77 F); relative humidity 30-70% (non-condensing)
Objet 260 Connex1
Model materials:
  • Rigid Opaque (VeroWhitePlus, VeroBlackPlus, VeroGray and VeroBlue)
  • Rubber (Tango family)
  • Transparent (RGD720 and VeroClear)
  • Simulated Polypropylene (Endur and Durus)
  • Biocompatible (MED610)
  • High Temperature (RGD525)
Support material: FullCure 705 non-toxic gel-like photopolymer support
Material cartridges: Eight sealed 3.6 Kg (7.9 lbs) cartridges. Three different model materials can be loaded simultaneously in the high-capacity material cabinet, and can be hot-swapped.
Net build size: 255 × 252 × 200 mm (10.0 x 9.9 x 7.9 in.)
Layer thickness: Horizontal build layers as fine as 16 microns (0.0006 in.)
Build resolution: X-axis: 600 dpi; Y-axis: 600 dpi; Z-axis: 1600 dpi
Accuracy: 20-85 µm for features below 50 mm; up to 200 µm for full model size (for rigid materials only, depending on geometry, build parameters and model orientation)
Workstation compatibility: Windows 7 32/64-bit
Network connectivity: LAN – TCP/IP
Size and weight: 870 × 735 × 1200 mm (34.25 × 28.9 × 47.25 inches); 410 kg (902 lbs)
Material Cabinet: 330 x 1170 x 640 mm (13 x 46.1 x 26.2 in.) 76 kg (168 lbs)
Power Requirements:110–240 VAC 50/60 Hz; 1.5 KW single phase
Regulatory Compliance: CE, FCC
Operating Conditions: Temperature 18-25 °C (64-77 °F); relative humidity 30-70% (non-condensing)
Objet260 Connex2
Model materials:
  • Rigid Opaque (VeroWhitePlus, VeroBlackPlus, VeroGray and VeroBlue)
  • Rubber (Tango family)
  • Transparent (RGD720 and VeroClear)
  • Simulated Polypropylene (Endur and Durus)
  • Biocompatible (MED610)
  • High Temperature (RGD525)
Digital Materials:
  • Digital ABS and Digital ABS2
  • Wide range of translucencies
  • Rubber blends in a range of Shore A values
  • Simulated Polypropylene materials with improved heat resistance
Support material: FullCure 705 non-toxic gel-like photopolymer support
Material cartridges: Eight sealed 3.6 Kg (7.9 lbs) cartridges. Three different model materials can be loaded simultaneously in the high-capacity material cabinet, and can be hot-swapped.
Net build size: 255 × 252 × 200 mm (10.0 x 9.9 x 7.9 in.)
Layer thickness: Horizontal build layers as fine as 16 microns (0.0006 in.)
Build resolution: X-axis: 600 dpi; Y-axis: 600 dpi; Z-axis: 1600 dpi
Accuracy: 20-85 µm for features below 50 mm; up to 200 µm for full model size (for rigid materials only, depending on geometry, build parameters and model orientation)
Workstation compatibility: Windows 7 32/64-bit
Network connectivity: LAN – TCP/IP
Size and weight: 870 × 735 × 1200 mm (34.25 × 28.9 × 47.25 inches); 410 kg (902 lbs)
Material Cabinet: 330 x 1170 x 640 mm (13 x 46.1 x 26.2 in.) 76 kg (168 lbs)
Power Requirements: 110–240 VAC 50/60 Hz; 1.5 KW single phase
Regulatory Compliance: CE, FCC
Operating Conditions: Temperature 18-25 °C (64-77 °F); relative humidity 30-70% (non-condensing)
Objet260 Connex3
Model materials:
  • Vero family of opaque materials, including color
  • Tango family rubber flexible materials
  • Medical: MED610
  • Digital ABS and Digital ABS2 in ivory and green
  • DurusWhite RGD430
  • High Temperature RGD525 white
  • Transparent: VeroClear and RGD720
Digital Materials: Hundreds of composite materials can be manufactured on the fly including:
  • Vibrant blended colors in rigid opaque
  • Translucent colored tints
  • Rubber-like materials in a variety of Shore A values
  • Digital ABS for durability, including blends with rubber
  • Polypropylene-like materials with improved thermal resistance
Support material: FullCure 705 non-toxic gel-like photopolymer support
Material cartridges: Eight sealed 3.6 Kg (7.9 lbs) cartridges. Three different model materials can be loaded simultaneously in the high-capacity material cabinet, and can be hot-swapped.
Net build size: 255 × 252 × 200 mm (10.0 x 9.9 x 7.9 in.)
Layer thickness: Horizontal build layers as fine as 16 microns (0.0006 in.)
Build resolution: X-axis: 600 dpi; Y-axis: 600 dpi; Z-axis: 1600 dpi
Accuracy: 20-85 µm for features below 50 mm; up to 200 µm for full model size (for rigid materials only, depending on geometry, build parameters and model orientation)
Workstation compatibility: Windows 7 32/64-bit
Network connectivity: LAN – TCP/IP
Size and weight: 870 × 735 × 1200 mm (34.25 × 28.9 × 47.25 inches); 410 kg (902 lbs)
Material Cabinet:330 x 1170 x 640 mm (13 x 46.1 x 26.2 in.) 76 kg (168 lbs)
Power Requirements:110–240 VAC 50/60 Hz; 1.5 KW single phase
Regulatory Compliance:CE, FCC
Operating Conditions: Temperature 18-25 °C (64-77 °F); relative humidity 30-70% (non-condensing)
Mojo
Model material: ABSplus in ivory, white, blue, fluorescent yellow, black, red, nectarine, olive green or gray
Support material: SR-30 soluble
Maximum part size: 12.7 x 12.7 x 12.7 cm (5 x 5 x 5 in.)
Layer thickness: 0.178 mm (0.007 in.)
Workstation compatibility: Windows XP/Windows 7
Size and weight: 63 x 45 x 53 cm, (25 x 18 x 21 in.); 27 kg (60 lbs.)
Power requirements:
  • 100-127 VAC, 6A, 60 Hz or
  • 220-240 VAC, 2.5A, 50 Hz
Regulatory compliance: CE/TUV/KCC/RoHS/WEEE
Special facility requirements: None
uPrint SE
Model material: ABSplus in ivory
Support material: SR-30 soluble
Build size: 203 x 152 x 152 mm (8 x 6 x 6 in.)
Layer thickness: .254 mm (.010 in.)
Workstation compatibility: Windows XP/Windows 7
Network connectivity: Ethernet TCP/IP 10/100 base T
Size and Weight:
  • uPrint SE with one material bay: 635 w x 660 d x 787 h mm (25 x 26 x 31 in.), 76 kg (168 lbs.)
  • uPrint SE with two material bays: 635 w x 660 d x 940 h mm (25 x 26 x 37 in.), 94 kg (206 lbs.)
Power Requirements: uPrint SE:
  • 100–127 VAC 50/60 Hz, minimum 15A dedicated circuit or
  • 220–240 VAC 50/60 Hz, minimum 7A dedicated circuit
Regulatory Compliance: CE/ETL/RoHS/WEEE
Special Facility Requirements: None
uPrint SE Plus
Model material: ABSplus in ivory, white, blue, fluorescent yellow, black, red, nectarine, olive green or gray
Support material: SR-30 soluble
Build size: 203 x 203 x 152 mm (8 x 8 x 6 in.)
Layer thickness: .254 mm (.010 in.) or .330 mm (.013 in.)
Workstation compatibility: Windows XP/Windows 7
Network connectivity: Ethernet TCP/IP 10/100 base T
Size and weight:
  • uPrint SE Plus with one material bay: 635 w x 660 d x 787 h mm (25 x 26 x 31 in.), 76 kg (168 lbs.)
  • uPrint SE Plus with two material bays: 635 w x 660 d x 940 h mm (25 x 26 x 37 in.), 94 kg (206 lbs.)
Power Requirements: 100–127 VAC 50/60 Hz, minimum 15A dedicated circuit or 220–240 VAC 50/60 Hz, minimum 7A dedicated circuit
Regulatory Compliance: CE/ETL/RoHS/WEEE
Special Facility Requirements: None
Dimension 1200es
Model material: ABSplus in nine colors
Support material: Soluble (SST 1200es); breakaway (BST 1200es)
Build size: 254 x 254 x 305 mm (10 x 10 x 12 in.)
Layer thickness: 0.33 mm (0.013 in.) or .254 mm (.010 in.)
Workstation compatibility: Windows XP/Windows 7
Network connectivity: Ethernet TCP/IP 10/100 base T
Size and weight: 838 x 737 x 1143 mm (33 x 29 x 45 in.); 148 kg (326 lbs.)
Power Requirements:
  • Dimension 1200es 3D printer: 100–120 VAC 60 Hz, minimum 15A dedicated circuit or 220–240 VAC 50/60 Hz, minimum 7A dedicated circuit
  • SCA-1200 support-removal system: 100-120 VAC, 15A, 60 Hz or 220-240 VAC, 10A, 50 Hz
Regulatory Compliance:
  • Dimension 1200es 3D printer: CE/ETL
  • SCA-1200 support-removal system: CE
Special Facility Requirements: None
Dimension Elite
Model material: ABSplus in nine colors
Support material: Soluble (SST 1200es); breakaway (BST 1200es)
Build size: 254 x 254 x 305 mm (10 x 10 x 12 in.)
Layer thickness: 0.33 mm (0.013 in.) or .254 mm (.010 in.)
Workstation compatibility: Windows XP/Windows 7
Network connectivity: Ethernet TCP/IP 10/100 base T
Size and weight: 838 x 737 x 1143 mm (33 x 29 x 45 in.); 148 kg (326 lbs.)
Power Requirements:
  • Dimension 1200es 3D printer: 100–120 VAC 60 Hz, minimum 15A dedicated circuit or 220–240 VAC 50/60 Hz, minimum 7A dedicated circuit
  • SCA-1200 support-removal system: 100-120 VAC, 15A, 60 Hz or 220-240 VAC, 10A, 50 Hz
Regulatory Compliance:
  • Dimension 1200es 3D printer: CE/ETL
  • SCA-1200 support-removal system: CE
Special Facility Requirements: None
Fortus 250mc
Material: ABSplus-P430
Build envelope (XYZ): 254 x 254 x 305 mm (10 x 10 x 12 in.)
Material delivery: One build material cartridge and one support material cartridge, each 923 cc (56.3 in3)
Layer thicknesses:
  • 0.013 inch (0.330 mm)
  • 0.010 inch (0.254 mm)
  • 0.007 inch (0.178 mm)
Support structure: Soluble
Available colors: Ivory, black, blue, dark grey, fluorescent yellow, nectarine, olive green, red, white, and custom colors
System size/weight: 838 x 737 x 1143 mm (33 x 29 x 45 in.)/with crate: 186 kg (409 lbs.), without crate: 148 kg (326 lbs.)
Achievable accuracy: Parts are produced within an accuracy of ± .241 mm (± .0095 in.). (Accuracy is geometry dependent. Achievable accuracy specification derived from statistical data at 95% dimensional yield.)
Network communication: 10/100 base T connection; Ethernet protocol
Operator attendance: Limited attendance required for job start and stop
Operating environment: Maximum room temperature of 30 C (86 F)
Relative humidity range: 30 to 70 percent, noncondensing
Power requirements:
  • 110–120 VAC, 60 Hz, minimum 15A dedicated circuit
  • 220–240 VAC 50/60 Hz,minimum 7A dedicated circuit
Regulatory compliance: CE/ETL
Software: All Fortus Systems include Insight and Control Center job-processing and management software.
Fortus 360/400mc
Materials: Fortus 360mc and 400mc:
  • ABS-M30
  • ASA
  • FDM Nylon 12
  • PC
  • PC-ABS
Fortus 400mc only:
  • ABS-ESD7
  • ABSi
  • ABS-M30i
  • PC-ISO
  • PPSF
  • ULTEM 9085
Build envelope options:
  • 355 x 254 x 254 mm (14 x 10 x 10 in.)
  • 406 x 355 x 406 mm (16 x 14 x 16 in.)
Material delivery options:
  • One bay each for material and support canisters
  • Two bays each for material and support canisters (with larger build envelope)
  • For maximum material capacity and up to 400 hours of unattended run time, the optional Fortus Plus upgrade enables the use of Xtend 500 Fortus Plus boxes.
Fortus Plus Upgrade option: A half-day customer support visit aligns material capabilities with Fortus Plus Systems, so you can access a growing list of FDM thermoplastics and share inventory across the complete range of Fortus 3D Production Systems.
Layer thicknesses:
  • 0.330 mm (0.013 in.)
  • 0.254 mm (0.010 in.)
  • 0.178 mm (0.007 in.)
  • 0.127 mm (0.005 in.)
Support structure: Soluble for most materials; break-away for PC-ISO, ULTEM and PPSF; soluble or break-away for PC
System size/weight: 1281 x 896 x 1962 mm (50.5 x 35.5 x 77.3 in.)/with crate: 786 kg (1,511 lbs.), without crate: 593 kg (1,309 lbs.)
Achievable accuracy: Parts are produced within an accuracy of ± .127 mm (± .005 in.) or ± .0015 mm/mm (± .0015 in/in), whichever is greater. (Accuracy is geometry dependent. Achievable accuracy specification derived from statistical data at 95% dimensional yield.)
Network communication: 10/100 base T connection; Ethernet protocol
Power requirements: 230 VAC, 50/60 Hz, 3 phase, 16A/phase (20 amp dedicated circuit required)
Regulatory compliance: CE
Special facility requirements:  None
Fortus 380/450mc
Materials: Fortus 380mc and 450mc:
  • ABS-M30
  • ABS-M30i
  • ABS-ESD7
  • ASA in black and ivory, with full range of colors coming in 2015
  • PC-ISO in white and translucent
  • PC
  • FDM Nylon 12
Fortus 450mc only:
  • ULTEM 9085 resin
  • ULTEM 1010 resin (coming in 2015)
Build envelope options:
  • Fortus 380mc: 355 x 305 x 305 mm (14 x 12 x 12 in.)
  • Fortus 450mc: 406 x 355 x 406 mm (16 x 14 x 16 in.)
Material delivery options:
  • Fortus 380mc: One bay each for material and support canisters
  • Fortus 450mc: Two bays each for material and support canisters
  • For maximum material capacity on the Fortus 450mc, Xtend 500 Fortus Plus material boxes are available for ABS-M30 (ivory and black), PC (polycarbonate) and their support materials. Each box contains 500 cubic inches (8194 cubic centimeters) of thermoplastic, so the 450mc can run nonstop for over two weeks without changing material.
Layer thicknesses:
  • 0.330 mm (0.013 in.)
  • 0.254 mm (0.010 in.)
  • 0.178 mm (0.007 in.)
  • 0.127 mm (0.005 in.)
Support structure: Soluble for most materials; break-away for PC-ISO and ULTEM; soluble or break-away for PC
System size/weight: 129.5 x 90.2 x 198.4 cm (51 x 35.5 x 78.1 in.)/with crate: 680 kg (1,500 lbs.), without crate: 601 kg (1,325 lbs.)
Achievable accuracy: Parts are produced within an accuracy of ± .127 mm (± .005 in.) or ± .0015 mm/mm (± .0015 in/in), whichever is greater. (Accuracy is geometry dependent. Achievable accuracy specification derived from statistical data at 95% dimensional yield.)
Workstation Compatibility:  Microsoft Windows 8.1 and Windows 8 (Pro, Enterprise), Microsoft Windows 7 (Pro, Enterprise, Ultimate), Microsoft Windows Vista (Business, Enterprise, Ultimate), Microsoft Windows Server 2008, Microsoft Windows Server 2003
Network communication: 10/100 base T connection; Ethernet protocol
Power requirements:
  • Fortus 380mc: 208VAC 3 phase, 50/60 Hz consumes 18 Amps
  • Fortus 450mc: 208VAC 3 phase, 50/60 Hz consumes 18 Amps
Regulatory compliance: CE, TUV listed
Special facility requirements: None
Fortus 900mc
Materials:
  • ABS-ESD7
  • ABSi
  • ABS-M30
  • ABS-M30i
  • ASA
  • FDM Nylon 12
  • PC
  • PC-ABS
  • PC-ISO
  • PPSF
  • ULTEM 9085 resin
  • ULTEM 1010 resin
Build size: 914 x 610 x 914 mm (36 x 24 x 36 in.)
Material delivery: Two bays each for material and support canisters
For maximum material capacity and up to 400 hours of unattended run time, the optional Fortus Plus upgrade enables Xtend 500 Fortus Plus material use.
Fortus Plus Upgrade option: A half-day customer support visit aligns material capabilities with Fortus Plus Systems, so you can access a growing list of FDM thermoplastics and share inventory across the complete range of Fortus 3D Production Systems.
Layer thicknesses:
  • 0.330 mm (0.013 in.)
  • 0.254 mm (0.010 in.)
  • 0.178 mm (0.007 in.)
Support structure: Soluble for most materials; break-away for PC-ISO, ULTEM and PPSF; soluble or break-away for PC
System size/weight: 2772 x 1683 x 2027 mm (109.1 x 66.3 x 79.8 in.)/with crate: 3287 kg (7247 lbs.), without crate: 2869 kg (6325 lbs.)
Achievable accuracy: Parts are produced within an accuracy of ± .09 mm (± .0035 in.) or ± .0015 mm/mm (± .0015 in/in), whichever is greater. (Accuracy is geometry dependent. Achievable accuracy specification derived from statistical data at 95% dimensional yield.)
Workstation compatibility: Windows 2003 through Windows 8
Network communication: 10/100 base T connection; Ethernet protocol
Power requirements: 230VAC nominal three-phase service with 5% regulation; 230VAC as measured phase-to-phase; 50Hz or 60Hz; 40 Amp circuit
Regulatory compliance: CE
Special facility requirements: None
Roboshot
Roboshot is the next generation of Artificial Intelligence (AI) in injection molding machines, with higher precision and reliable molding capabilities than ever before. Engineered for greater rigidity, Roboshot’s proven performance makes it the perfect solution for cleanrooms and other molding environments that demand precise process control, high speed injection and consistent repeatability.
Rigid 2-Piece Wide Platen ClampRoboshot Clamp: Roboshot’s moving platen now incorporates a new 2-piece structure designed to reduce platen deflection.
High Performance, Rigid, Low Friction Injection Unit: The S2000i-B Series injection units have been engineered for greater rigidity.
Precise 31-iB Control: Roboshot all-electric plastic injection molding machine ROBOSHOT’s 31-iB Control incorporates high-speed parallel processors with 64-bit technology.

The 31-iB Control is equipped with:
  • Windows CE™ display operating system
  • Storage for 300 mold files
  • Ethernet connection for LINKi and printing to memory card
  • PCMCIA memory card slot for printing to memory card and screenshot capture
MOLD 24i Networking and Resin Evaluation Options: The MOLD 24i Option includes a quality radar for 40 items or more, molding parameter change log, run hour analysis, process monitor, and alarm log.
Elektron
Rigid Toggle Mechanism: Clamp Movement by Ball Screw & Synchronous Belt Drive for Fast & Accurate Clamp Operation
Fully Guided Multi Point Ejector:
  • Ejector Movement by Ball Screw & Synchronous Belt Drive
  • Long Ejector Strokes
  • Ejector Parallel to Clamp Movement
Bull Gear Mechanism: Simple & Accurate Mould Height Adjustment for Precise Tonnage
Endura-II - Advanced User Friendly Control:
  • Ergonomic Layout
  • High Speed Microprocessor
  • Direct Access Menu Keys
  • Graphical Presentation of Machine Features
  • Self Diagnostic & Fault Finding Capability
  • Parameter Entry in Absolute Value
  • Central Monitoring System
  • Statistical Process Control (SPC)
Compact Injection Unit:
  • Injection Movement by Ball Screw & Synchronous Belt Drive for Precise Control of Injection Function
  • Synchronous Belt Drive for Screw Rotation
  • Refilling Parallel to Clamp Movement
The Drives:
  • New Generation Servo Motors & Drives provide Optimum Performance
  • The Position Control is by Drive Axis
  • POWERLINK™ Ultra Fast Connection between PLC & Drives provides fastest Response Times
Superior Precision
Cycle Time Reduction: Parallel Movement of Axes
Shot Weight Consistency: Reduced Cost
Quick Barrel Exchange In Vertical Direction (up to IU 630): IU 970 onwards Barrel Swivel Mechanism
Magna T
Robust & Rugged Toggle Mechanism:
  • Toggle Mechanism Optimized for Fast Cycling & Reduced Platen Deflection
  • Higher Mould Weight Capacity
Bull Gear Mechanism: Simple & Accurate Mould Height Adjustment for Precise & Consistent Tonnage
Multi Stage Ejection:
  • Smooth & Fast Ejection
  • Easy Access to Ejector Area
  • Knock Out Bar for Multi Point Ejection
  • Pulsating Ejector
Generous Mould Space: Accommodates Large Moulds
Wide Skates for Platen Supports:
  • Reduced Platen Deflection
  • Enhanced Life of Tie-bars
  • Higher Mould Carrying Capacity
Endura-II, Advanced User Friendly Control:
  • Ergonomic Layout
  • High Speed Microprocessor
  • Direct Access Menu Keys
  • Graphical Presentation of Machine Features
  • Self Diagnostic & Fault Finding Capability
  • Parameter Entry in Absolute Value
  • Central Monitoring System
  • Statistical Process Control (SPC)
Closed Loop PID Temperature Control:
  • Provides precise Temperature Control
  • Excellent Process Control & Stability
Twin Cylinder Injection Unit: Uniform Load Distribution across Screw Centerline
Precise Linear Guideways: Frictionless Linear Bearing Guideways improve the Injection Power & Cylinder Alignment
Replacement of Standard Induction Motor with Servo Motor: Energy savings up to 50%
Automatic Grease Lubrication for Clamping Unit: Ensures continuous & optimum Lubrication to Reduced Friction & Longer Toggle Life
Fully Guided Knock Out Bar: Provides Multi Point Ejection & Even Ejection Force
Finite Element Analysis (FEA) for Machine Components: Provides Maximum Strength to Weight Ratio
Hydraulic Valves Mounted Close to Actuators: Fast Response From Actuator to Control Unit
Omega
Unique Prefill Cylinder Design: Fast Tonnage Built-up Time
Large Ram Diameter:
  • Provides Uniform Force Distribution across Platen
  • Provides Excellent Mould Squareness & Parallelism
  • Reduces Mould Wear
Generous Mould Space: Accommodates Large Moulds
Wide Skates for Platen Supports:
  • Reduced Platen Deflection
  • Enhanced Life of Tie-bars
  • Higher Mould Carrying Capacity
Closed Loop PID Temperature Control:
  • Provides Precise Temperature Control
  • Excellent Process Control & Stability
Endura-II - Advanced User Friendly Control:
  • Ergonomic Layout
  • High Speed Microprocessor
  • Direct Access Menu Keys
  • Graphical Presentation of Machine Features
  • Self Diagnostic & Fault Finding Capability
  • Parameter Entry in Absolute Value
  • Central Monitoring System
  • Statistical Process Control (SPC)
Twin Cylinder injection Unit: Uniform Load Distribution across Screw Centerline
Finite Element Analysis (FEA) for Machine Components: Provides Maximum Strength to Weight Ratio
Mono Seal & No Piston Rings: Long Life of Sealing System, Ease of Maintenance
Fully Guided Knock Out Bar: Provides Multi Point Ejection & Even Ejection Force
Hydraulic Valves Mounted Close to Actuators: Fast Response From Actuator to Control Unit
Nova
Robust & Rugged Toggle Mechanism:
  • Toggle Mechanism Optimized for Fast Cycling & Reduced Platen Deflection
  • Higher Mould Weight Capacity
Multi Stage Ejection
  • Smooth & Fast Ejection
  • Easy Access to Ejector Area
  • Knock Out Bar for Multi Point Ejection
  • Pulsating Ejector
Generous Mould Space: Accommodates Large Moulds
Wide Skates for Platen Supports
  • Reduced Platen Deflection
  • Enhanced Life of Tie-bars
  • Higher Mould Carrying Capacity
Closed Loop PID Temperature Control: Provides precise Temperature Control, Excellent Process Control & Stability
Endura-II, Advanced User Friendly Control
  • Ergonomic Layout
  • High Speed Microprocessor
  • Direct Access Menu Keys
  • Graphical Presentation of Machine Features
  • Self Diagnostic & Fault
  • Finding Capability
  • Parameter Entry in Absolute Value
  • Central Monitoring System
  • Statistical Process Control (SPC)
Twin Cylinder Injection Unit: Uniform Load Distribution across Screw Centerline
Replacement of Standard Induction Motor with Servo Motor: Energy savings up to 50%
Fully Guided Knock Out Bar:  Provides Multi Point Ejection & Even Ejection Force
Hydraulic Valves Positioned Near Actuators: Fast Response & Accurate Control
Finite Element Analysis (FEA) for Machine Components: Provides Maximum Strength to Weight Ratio
CAN Bus System with Servo System:
  • Significant effect on overall Machine Performance as Servo System is Faster double than DFE System
  • Better Energy Efficiency as compare to DFE + VFD
Magna T Servo
Robust & Rugged Toggle Mechanism:
  • Toggle Mechanism Optimized for Fast Cycling & Reduced Platen Deflection
  • Higher Mould Weight Capacity
Bull Gear Mechanism: Simple & Accurate Mould Height Adjustment for Precise & Consistent Tonnage
Multi Stage Ejection:
  • Smooth & Fast Ejection
  • Easy Access to Ejector Area
  • Knock Out Bar for Multi Point Ejection
  • Pulsating Ejector
Generous Mould Space: Accommodates Large Moulds
Wide Skates for Platen Supports
  • Reduced Platen Deflection
  • Enhanced Life of Tie-bars
  • Higher Mould Carrying Capacity
Endura-II, Advanced User Friendly Control:
  • Ergonomic Layout
  • High Speed Microprocessor
  • Direct Access Menu Keys
  • Graphical Presentation of Machine Features
  • Self Diagnostic & Fault Finding Capability
  • Parameter Entry in Absolute Value
  • Central Monitoring System
  • Statistical Process Control (SPC)
Closed Loop PID Temperature Control:
  • Provides precise Temperature Control
  • Excellent Process Control & Stability
Twin Cylinder Injection Unit: Uniform Load Distribution across Screw Centerline
Precise Linear Guideways: Frictionless Linear Bearing Guideways improve the Injection Power & Cylinder Alignment
Replacement of Standard Induction Motor with Servo Motor: Energy savings up to 50%
Automatic Grease Lubrication for Clamping Unit: Ensures continuous & optimum Lubrication to Reduced Friction & Longer Toggle Life
Fully Guided Knock Out Bar: Provides Multi Point Ejection & Even Ejection Force
Finite Element Analysis (FEA) for Machine Components: Provides Maximum Strength to Weight Ratio
Hydraulic Valves Mounted Close to Actuators: Fast Response From Actuator to Control Unit
Omega Servo
Unique Prefill Cylinder Design: Fast Tonnage Built-up Time
Large Ram Diameter
  • Provides Uniform Force Distribution across Platen
  • Provides Excellent Mould Squareness & Parallelism
  • Reduces Mould Wear
Generous Mould Space: Accommodates Large Moulds
Wide Skates for Platen Supports:
  • Reduced Platen Deflection
  • Enhanced Life of Tie-bars
  • Higher Mould Carrying Capacity
Closed Loop PID Temperature Control:
  • Provides Precise Temperature Control
  • Excellent Process Control & Stability
Endura-II - Advanced User Friendly Control:
  • Ergonomic Layout
  • High Speed Microprocessor
  • Direct Access Menu Keys
  • Graphical Presentation of Machine Features
  • Self Diagnostic & Fault Finding Capability
  • Parameter Entry in Absolute Value
  • Central Monitoring System
  • Statistical Process Control (SPC)
Twin Cylinder injection Unit: Uniform Load Distribution across Screw Centerline
Finite Element Analysis (FEA) for Machine Components: Provides Maximum Strength to Weight Ratio
Mono Seal & No Piston Rings: Long Life of Sealing System, Ease of Maintenance
Fully Guided Knock Out Bar: Provides Multi Point Ejection & Even Ejection Force
Hydraulic Valves Mounted Close to Actuators: Fast Response From Actuator to Control UnitServo
Hydron Servo
Advanced Clamp Design: Separate Prefill Tank, Fast Tonnage Build-up, Special Hydraulics for Fast Clamp Movements
Large Ram Diameter: Provides Uniform Force Distribution across Platen, Provides Excellent Mould Squareness & Parallelism, Reduces Mould Wear
Generous Mould Space: Accommodates Large Moulds
Wide Skates for Platen Supports: Reduced Platen Deflection, Enhanced Life of Tie-bars, Higher Mould Carrying Capacity
Endura-II, Advanced User Friendly Control:
  • Ergonomic Layout
  • High Speed Microprocessor
  • Direct Access Menu Keys
  • Graphical Presentation of Machine Features
  • Self Diagnostic & Fault
  • Finding Capability
  • Parameter Entry in Absolute Value
  • Central Monitoring System
  • Statistical Process Control (SPC)
Closed Loop PID Temperature Control: Provides precise Temperature Control, Excellent Process Control & Stability
Twin Cylinder Injection Unit: Uniform Load Distribution across Screw Centerline
Precise Linear Guideways: Frictionless Linear Bearing Guide ways improve the Injection Power & Cylinder Alignment
Replacement of Standard Induction Motor with Servo Motor:Energy savings up to 50%
Finite Element Analysis (FEA) for Machine Components
Fully Guided Knock Out Bar: Provides Multi Point Ejection & Even Ejection Force
Mono Seal & No Piston Rings: Long Life of Sealing System, Ease of Maintenance
Hydraulic Valves Mounted Close to Actuators: Fast Response From Actuator to Control Unit
More Use of Hoses: Quieter Machine Operation
Maxima Servo
Robust & Compact Two Platen Clamping Mechanism:
  • Long Clamp Stroke, Large Daylight & Generous Mould Space
  • Large, Short Stroking Central Ram gives Quick Tonnage with Uniform Distribution of Clamping Force. This along with Extended Platen Support Skates gives excellent Platen Parallelism & ensures Long Mould Life
  • Traverse Cylinders for Rapid Clamp Speeds
  • Smaller Footprint
Fully Guided Multipoint Ejector on Fly:
  • Smooth & Fast Ejection
  • Proportional Speed Control
  • Knock Out Bar for Multi Point Ejection
  • Linear Transducer for Position Control
  • Easy Access to Ejector Area
Rigid Base Construction:
  • Maximum Strength, Rigidity & Durability
  • Lower Machine Centerline
Endura-II - Advanced User Friendly 10.4" TFT Controller (500 to 1000 Ton):
  • Ergonomic Layout
  • High Speed Microprocessor
  • Direct Access Menu Keys
  • Graphical Presentation of Machine Features
  • Self Diagnostic & Fault Finding Capability
  • Parameter Entry in Absolute Value
  • Central Monitoring System
  • Statistical Process Control (SPC)
Hydraulic Valves Mounted Close to Actuators: Fast Response From Actuator to Control Unit
Precise Linear Guideways: Lower Friction Linear Bearing Guideways improve the Injection Power & Cylinder Alignment
Energy Efficient Hydrualics: Electro-Hydraulic Variable Volume Pump for Low Energy Consumption
Robust & Rigid Clamp:
  • Maxima Tie Bars are Fully Supported End-To-End by Rigid Frame Structure to Ensure Platen Parallelism.
  • Automatic Lubrication of the Moving Platen & Clamp Cylinder Platen Assures Continuous Low Friction.
  • Split Locking Nuts on Buttressed Grooved Tie Bar Threads Ensure Aligned Clamp Lock-Up.
  • The Moving Platen & Cylinder Platen Together form a Deep Box Structure for Minimal Deflection & Optimal Support for the Mould.
  • The Moving Platen Adjustable Skates Ride on Hardened Steel Ways & can be Precisely Adjusted as Needed Over Time.
  • Above-Average Tie Bar Spacing & a Large Opening Allow for the use of Big Moulds & Deep Draw Parts with a Smaller Footprint Machine. Tie Bar Extensions & Optional Tie Bar Pullers Provide Moulders with Added Flexibility. Large Moulds can be Easily Installed with a Crane.
Precision Processing Performance:
  • Maxima Series provides Versatility with Multiple Injection Units available with A-B Barrel & Screw Combinations.
  • Whole Injection Unit Swings Out offering Easy Access for Maintenance.
  • Clean & Clear Access to the Purge Area on both the Operator & Non-Operator Sides of the Machines.
Production of special, custom-made 3D ceramic-composite materials and prototypes
xternal Measures: It is a robust 3D industrial printing device (11 x 7 ratio) of the latest design with pressure-tight enclosure. The production chamber is specially designed for the use of different ceramic, metal and composite materials.
Production technology:The 3D printing machine allow you to produce custom-made components and prototypes by high-energy laser beam developed layers time efficiently at competitive costs. Production parameters can be adjusted at a wide range according to the materials and the geometrical design.
Preparing materials: The 3D printer is equipped with an independent preparation unit for unique ceramic composite materials for for research or serial production, under controlled conditions.
Control: Local or remote device and production control mode, the printer is equipped with own software and intuitive user interface.
Testing environment: Machine to perform preliminary tests for various manufacturing parameters and conditions with the same technology with economic testing equipment.