3d printer filament - Import export

igus® presents world's first tribological 3D filament for 3D printers. The tribological 3D printing material is up to 50 times more abrasion-resistant than conventional 3D print materials igus® has been researching the 3D printer filament field to provide its customers with even more flexibility. Real useable parts can now be produced for prototyping. At the moment we offer two materials: the highly wear resistant iglidur® I170-PF and the flexible iglidur® I180-PF. igus®' 3D printer material starter kits are now available in weights from 25 g and diameters of 1,75 mm - 3 mm. Typical applications:Prototype construction, small batches, test installations Delivery program: Delivery program: Wear linear: v= 0,1 m/s; p= 1 MPa; l= 5 mm Wear pivoting: v= 0.01 m/s; p= 1 MPa; ß= 60 igus® presents world's first tribological 3D filament for 3D printers. The tribological 3D printing material is up to 50 times more abrasion-resistant than conventional 3D print materials igus® has been researching the 3D printer filament field to provide its customers with even more flexibility. Real useable parts can now be produced for prototyping. At the moment we offer two materials: the highly wear resistant iglidur® I170-PF and the flexible iglidur® I180-PF. igus®' 3D printer material starter kits are now available in weights from 25 g and diameters of 1,75 mm - 3 mm. Typical applications:Prototype construction, small batches, test installations igus® presents the first tribo filament for 3D printers The new 3D printing materials are up to 50 times more abrasion-resistant than conventional 3D print materials. Complete processing instructions for iglidur® I170-PF (PDF) Complete processing instructions for iglidur® I180-PF (PDF) iglidur® |180-PF Hotend temperature: 220 - 250 °C Bed temperature: 90 - 110 °C Excellent wear behaviour Material table Colour white Moisture absorption at 23 °C and 50 %r.h. 0,3 weight-% Max. water absorption 0,9 weight-% Max. long term application temperature +80 °C Max. short term application temperature +90 °C Minimum application temperature -40 °C Delivery program: iglidur® |170-PF Hotend temperature: 220 - 250 °C Bed temperature: 90 - 110 °C Outstanding wear behaviour of the tribo filaments Harder to process Material table Colour yellow Moisture absorption at 23 °C and 50 %r.h. 0,5 weight-% Max. water absorption 1,6 weight-% Max. long term application temperature +75 °C Max. short term application temperature +85 °C Minimum application temperature -40 °C Delivery program: Y = rate of wear [µm/km] * moulded Wear linear: v= 0,1 m/s; p= 1 MPa; l= 5 mm Y = rate of wear [µm/km] * moulded Wear pivoting: v= 0.01 m/s; p= 1 MPa; ß= 60

Medical-grade, biocompatible PEEK polymer materials Our wide range of biocompatible polymer materials and compounds are each designed to meet the specific and rigorous demands of implantable medical devices. PEEK materials are tailored to offer superior performance in a variety of applications including spine, orthopedic, trauma, dental and specialty devices. Innovative PEEK materials and our in-depth manufacturing knowledge combined with application expertise supports medical device companies to bring leading edge devices to market and open up new areas of growth.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

THE SYNERGY OF LARGE BUILD VOLUME AND HIGH-TEMPERATURE THERMAL DESIGN. High-temperature chamber for printing large functional parts with material PEEK Polymer without warpage & delamination.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

THE SYNERGY OF LARGE BUILD VOLUME AND HIGH-TEMPERATURE THERMAL DESIGN. High-temperature chamber for printing large functional parts with material PEEK Polymer without warpage & delamination. Large Scale. High Temperature. Industrial Production.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

THE SYNERGY OF LARGE BUILD VOLUME AND HIGH-TEMPERATURE THERMAL DESIGN. High-temperature chamber for printing large functional parts with material PEEK Polymer without warpage & delamination. Large Scale. High Temperature. Industrial Production.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

• Mold measurements up to 4 x 2 x 1 m • Does away with elaborate and expensive mold set-ups • Short throughput time (a few days) • Sand molds correspond 1:1 with CAD model • Structures can be designed in accordance with requirements, without having to watch for draft angles or undercuts • Special sands prevent casting problems • Surface quality can be adjusted through use of different sands • Coarse-grained sands for high gas permeability • Considerable flexibility with changes in geometry, without additional expenses • No storage or maintenance of patterns • Cost savings particularly for complex molds and batch sizes of 1 to several hundred pieces

• Mold measurements up to 4 x 2 x 1 m • Does away with elaborate and expensive mold set-ups • Short throughput time (a few days) • Sand molds correspond 1:1 with CAD model • Structures can be designed in accordance with requirements, without having to watch for draft angles or undercuts • Special sands prevent casting problems • Surface quality can be adjusted through use of different sands • Coarse-grained sands for high gas permeability • Considerable flexibility with changes in geometry, without additional expenses • No storage or maintenance of patterns • Cost savings particularly for complex molds and batch sizes of 1 to several hundred pieces

• Mold measurements up to 4 x 2 x 1 m • Does away with elaborate and expensive mold set-ups • Short throughput time (a few days) • Sand molds correspond 1:1 with CAD model • Structures can be designed in accordance with requirements, without having to watch for draft angles or undercuts • Special sands prevent casting problems • Surface quality can be adjusted through use of different sands • Coarse-grained sands for high gas permeability • Considerable flexibility with changes in geometry, without additional expenses • No storage or maintenance of patterns • Cost savings particularly for complex molds and batch sizes of 1 to several hundred pieces

• Mold measurements up to 4 x 2 x 1 m • Does away with elaborate and expensive mold set-ups • Short throughput time (a few days) • Sand molds correspond 1:1 with CAD model • Structures can be designed in accordance with requirements, without having to watch for draft angles or undercuts • Special sands prevent casting problems • Surface quality can be adjusted through use of different sands • Coarse-grained sands for high gas permeability • Considerable flexibility with changes in geometry, without additional expenses • No storage or maintenance of patterns • Cost savings particularly for complex molds and batch sizes of 1 to several hundred pieces

• Model measurements up to 1.000 x 600 x 500 mm • Same handling as for conventional wax parts • Tool-less and hence more cost-effective process • Single items and small series can be produced within a few days • High degree of accuracy: ±0.4% (min. +/- 100 µm) • Wax infiltration creates closed smooth surface • Suitable for autoclaves, even for thin-walled shells • Can be burnt out in normal kiln with low emission formation • Does not expand during burn-out process, hence no shell cracking (whether gypsum or ceramics) • Residual ash contents <0.02% for polypor binder type C • All alloys can be used with lost-wax casting process

• Model measurements up to 1.000 x 600 x 500 mm • Same handling as for conventional wax parts • Tool-less and hence more cost-effective process • Single items and small series can be produced within a few days • High degree of accuracy: ±0.4% (min. +/- 100 µm) • Wax infiltration creates closed smooth surface • Suitable for autoclaves, even for thin-walled shells • Can be burnt out in normal kiln with low emission formation • Does not expand during burn-out process, hence no shell cracking (whether gypsum or ceramics) • Residual ash contents <0.02% for polypor binder type C • All alloys can be used with lost-wax casting process

• Model measurements up to 1.000 x 600 x 500 mm • Same handling as for conventional wax parts • Tool-less and hence more cost-effective process • Single items and small series can be produced within a few days • High degree of accuracy: ±0.4% (min. +/- 100 µm) • Wax infiltration creates closed smooth surface • Suitable for autoclaves, even for thin-walled shells • Can be burnt out in normal kiln with low emission formation • Does not expand during burn-out process, hence no shell cracking (whether gypsum or ceramics) • Residual ash contents <0.02% for polypor binder type C • All alloys can be used with lost-wax casting process

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

• Model measurements up to 1.000 x 600 x 500 mm • Same handling as for conventional wax parts • Tool-less and hence more cost-effective process • Single items and small series can be produced within a few days • High degree of accuracy: ±0.4% (min. +/- 100 µm) • Wax infiltration creates closed smooth surface • Suitable for autoclaves, even for thin-walled shells • Can be burnt out in normal kiln with low emission formation • Does not expand during burn-out process, hence no shell cracking (whether gypsum or ceramics) • Residual ash contents <0.02% for polypor binder type C • All alloys can be used with lost-wax casting process

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.

THE SYNERGY OF LARGE BUILD VOLUME AND HIGH-TEMPERATURE THERMAL DESIGN. High-temperature chamber for printing large functional parts with material PEEK Polymer without warpage & delamination. Large Scale. High Temperature. Industrial Production.

• Model measurements up to 1.000 x 600 x 500 mm • Same handling as for conventional wax parts • Tool-less and hence more cost-effective process • Single items and small series can be produced within a few days • High degree of accuracy: ±0.4% (min. +/- 100 µm) • Wax infiltration creates closed smooth surface • Suitable for autoclaves, even for thin-walled shells • Can be burnt out in normal kiln with low emission formation • Does not expand during burn-out process, hence no shell cracking (whether gypsum or ceramics) • Residual ash contents <0.02% for polypor binder type C • All alloys can be used with lost-wax casting process

3D printing or additive manufacturing (AM) is any of various processes for making a three-dimensional object of almost any shapes. At RPWORLD, additive manufacturing 3D printing is designed for functional prototypes, complex designs, and production components. - Materials selection Selective laser sintering, (SLS), Stereolithography (SLA) and Fused Deposition Modeling (FDM) are the most common additives manufacturing processes that RPWORLD uses to realize a project. - Cost-efficiently You can get the 3D printed parts of any possible shapes as you desire. And more importantly, since it doesn’t need the mold, it could be a cost-effective process for your custom parts. - Complex-geometries The structure of the 3D printed parts is not limited, you can nearly get any shapes as your part design.