Three personalities, one week in Milan
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Royals collection by IAMMI Studio - delicate, jewelry-like lampshades printed in PolyCore™ PETG-1000. The translucent finish makes light the narrator; if your project lives or dies by clarity and controlled diffusion, 1000 is the grade that delivers.
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Lithic Flow Divider by Caracol AM, a parametric architectural wall with an authentic marble finish, straight out of the extruder. The secret is PolyCore™ PETG-1113 Marble, which gives you genuine stone aesthetics without compromising the structural performance and printability of glass-filled PETG. No post-finish tricks — the marble is in the material itself.
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Ginger Pavilion nodes by Sina Lüder, reusable, material-efficient connectors printed in PolyCore™ PETG-1312. These nodes form a fully functional structure, proving that medium-format LFAM can deliver the detail, strength, and dimensional stability that real construction demands.
Architectural-scale statements, Suzhou and Shanghai
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Sérac 凌川 indoor partition by Dr. Dasong Wang - now standing permanently in our Suzhou R&D center- is a masterclass in material pairing. The load-bearing base uses PolyCore™ PETG-1113 (30% glass fiber) for rigid folded strength, while the upper translucent volume exploits the high transmittance of PolyCore™ PETG-1000 to turn glacier-like topology into light-filled space. Two materials, one seamless experience.
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Origin of Huangpu magnolia sculpture by Flash - blooming inside Shanghai’s busiest metro station, this public artwork was fabricated with PolyCore™ PETG-1312. For medium-format projects where complexity, scale, and deadline collide, PETG-1312 is formulated to remove the usual trade-offs: clean retraction, dramatically reduced warping, and a surface finish that cuts post-processing down to size.
And then there’s the rover tire bound for Antarctica
In recent years, continuous innovation and progress in 3D printing technologies has led to an increase of applications in the architecture industry. Compared to traditional building molds using wood or steel, 3D printed molds only require inputting the design into 3D printing software to produce the final mold or shape. This is one of the clear advantages of using 3D printed molds for construction because of its efficiency and sustainability.
PolyCore™ ABS-5012, a PolyCore™ pellet, was selected as the material of choice for printing a mold for a custom concrete wall. This cost-effective, 20% glass fiber reinforced ABS compound material is ideal for 3D printed molds and tools used in a low-temperature ranges (ambient up to 80℃). By utilizing this material for mold printing and leveraging the large size and high precision of 3D printing technology, we created a 5m(L)*0.4m(W)*2m(H) branding wall for Polymaker.
This article will reveal the step-by-step process of building this wall with PolyCore™ ABS-5012.
Initially, the designers went beyond the usual design constraints of traditional molds and createed a multi-faceted pattern, incorporating the Polymaker logo, thus utilizing the creative freedoms provided by using 3D printed technology.
For the next steps, the mold designs were printed and processed, taking a total of 16 hours. After printing, the final full-scale form was cut into four parts and the inner surface underwent additional post-processing to ensure a smooth concrete cast finish.
The mold components were then assembled using bolts, while an external support structure was assembled to facilitate a stable concrete pouring process.
Finally, the concrete pouring and demolding stage commenced. This phase involved constructing a reinforcing mesh structure inside the 3D printed form, pouring in C30 concrete, allowing it to air-dry, and then demolding and coloring the structure.
The end result was a branded wall with the Polymaker logo, which then went on to win the TCT Asia Best Application Award - Industrial Product Applications in 2024.
Through innovative research and development, Polymaker continues to enhance the stability and durability of its materials, particularly pellets, for construction applications. This aids in achieving a higher level of design freedom, shorter lead times, reduced production costs, and a lower carbon footprint in the manufacturing process.
It is anticipated that 3D printed buildings will become a key driver in the construction industry's development in the near future, delivering marvelous designs through this new additive manufacturing method, fostering innovation across the board.
SHANGHAI, May 6, 2024 - Polymaker recently won the TCT Asia Best Application Award - Industrial Product Applications for its pellet product, PolyCore™, in the 3D printing of architectural stencils. This honor not only recognizes Polymaker's innovation and excellence, but also its continued leadership in the 3D printing industry.
With the continuous innovation and advancement of 3D printing technology, utilizing the advantages of 3D printing's high precision and large size, PolyCore™ was selected as the product range to produce a 5m(L)*0.4m(W)* 2m(H) brand wall for Polymaker.
Polymaker collaborated with Shanghai Mechanized Construction Group, a subsidiary of Shanghai Construction Group (SCG) and Shanghai Kuying Technology Co., Ltd. to develop and print this wall.
The design of the wall features the Polymaker logo and a multi-faceted pattern, which demonstrates the strength and advantages of 3D printing when implementing creative design ideas in the construction Industry.
The completion of this wall is of great significance. SCG said: “The application of 3D printing technology in large scale shaped concrete formwork will revolutionize the speed and accuracy of manufacturing such as molds in municipal and construction projects. Compared with traditional molds, 3D printing technology effectively reduces the manufacturing cost and construction time, and promotes the transformation of traditional construction to digitalization, industrialization, intelligence, and low-carbonization.”
It is a significant achievement for Polymaker to be recognized at TCT Asia (The most influential additive manufacturing event in Asia) and to be awarded the Best Application Award - Industrial Product Applications, further reinforcing Polymaker’s position and portfolio within the construction field. Detailed information about this case, please click "Architecture Molding Case Printed with PolyCore™".
“We are extremely honored to win this award at TCT Asia this year. It not only recognizes our team's unremitting efforts and continuous innovation, but also brings new insights to the construction industry. Polymaker has been a pioneer in applying 3D printing to the construction field, providing a variety of pellet products for the construction industry including indoor design and outdoor construction, and successfully creating projects such as Taopu Central Park Bridge in Shanghai, China, the “Liuyun Bridge” in Chengdu,China, and Namthaja’s Rakah Roundabout Sculptures. In the future, the brand will also continue to devote itself to technological innovation and product optimization to bring more intelligent manufacturing possibilities to the construction industry and make buildings glow with the beauty of intelligent manufacturing.” Polymaker CEO Dr. Luo Xiaofan said.
In addition to the Best Application Award - Industrial Product Applications, Polymaker was also honored as a “10 Years Exhibitor” on the occasion of the 10th anniversary of TCT Asia. This honor represents Polymaker's longstanding partnership and close relationship with TCT Asia, as well as the brand's continued contributions to the 3D printing industry.
In the future, Polymaker will continue to uphold the spirit of excellence and innovation, expanding the boundaries of the additive manufacturing field, providing customers and partners with superior solutions, and ultimately advancing the development of additive manufacturing technology.
Polymaker unveiled the "Liuyun Bridge", a 3D printed polymer bridge built jointly by Shanghai Construction Group Co., Ltd., Polymaker, and Shanghai Kuying Technology Co., Ltd., in Yimahe Park, Longquanyi District, Chengdu in 2021. Inspired by the free-flowing shape of the stagecoach and dancing silk, “Liuyun Bridge” achieves bold innovations in landscape design using new technology and materials unlike ever before while managing to overcome many obstacles in the 3D printing process. Polymaker was largely responsible for the conception and completion of this project, providing the materials and spearheading the exploration of landscape bridge design.
The printing process of "Liuyun Bridge"
Innovating on the printing process, the “Liuyun Bridge” takes advantage of Polymaker’s materials and creatively employs new technology to complete its construction not only quicker, but also with higher quality. The bridge manages to shorten its construction period using the Kuying Tech’s 5-Axis Milling and Additive Manufacturing Integrated Machine (BGAM), which allows for uninterrupted 3D printing to continuously occur at all hours of the day without any manual interaction, finishing the printing of “Liuyun Bridge’s” main components in only thirty-five days.
Polymaker guarantees the bridge’s stability and safety for years to come with their polymer pellets PolyCore™ ASA-3012, a material with excellent anti-aging. Another new method used to improve the printing process, closed-loop printing ensures there are minimal deformations by monitoring the temperature of the material during the printing process. The “Liuyun Bridge” consumes several tons of materials to finally complete its construction by printing segmented components to be assembled on site. Heavily dependent on Polymaker and their materials, “Liuyun Bridge” is a one-of-a-kind landscape bridge that only found its success through Polymaker.
A tremendous feat for 3D printing like the “Liuyun Bridge” never could have been accomplished without the collaboration between Shanghai Construction Group Co., Ltd., Polymaker, and Shanghai Kuying Co., Ltd. The actual design for the bridge was a product from both Shanghai Construction Group Co., Ltd. and Polymaker while Shanghai Kuying Co., Ltd. was responsible for the technology that let the material reach its fullest potential, crafting the bridge’s components with few errors and in an extremely short amount of time. However, Polymaker’s PolyCore™ ASA-3012 laid the foundation for this incredible achievement in 3D printing as the material made the design feasible in reality and continues to support its everyday use.
Materials used for “Liuyun Bridge”
The “Liuyun Bridge” used many new methods specific to Polymaker’s material to expand on the bridge’s performance. As the optimal material for the bridge, PolyCore™ ASA-3012 has mechanical properties suited for outdoor use and works specifically for large 3D prints, enhancing their dimensional stability and interlayer adhesion. Currently, most additive manufacturing technologies result in residual stress and warpage when using the fused deposition molding process. However, “Liuyun Bridge” incorporates a multi-factor analysis method, controlling ambient temperature and the three-stage melting of materials with different parameters like temperature, glass transition temperature, and single-layer printing time, to prevent any warping or deformations caused by rapid cooling.
During the printing process, heating the workspace before and after printing strengthens the layer-by-layer adhesion of the 3D printed materials, further reducing any possible problems with the printed components. Allowing the design of “Liuyun Bridge” to be fully realized, the high-precision five-axis CNC processing system of Kuying’s BGAM removes the typical margin of error reserved for printing deformations and heightens the accuracy of segmented printing components. With Polymaker’s PolyCore™ ASA-3012 being so advantageous, it solves many previous printing issues while still bolstering “Liuyun Bridge’s” stability and structure.
“Liuyun Bridge” is not the first bridge to use 3D printing technology though. Polymaker has worked in the construction of a few other 3D printed bridges, both at home and abroad, to realize new breakthroughs and accomplishments on each of their projects.
Polymaker’s 3D printed bridges in China
Shanghai Taopu Central Park Bridge
In 2019, China’s first composite landscape bridge was constructed in Shanghai Taopu Central Park by Shanghai Construction Group Co., Ltd., Polymaker, and Shanghai Kuying Technology Co., Ltd. As the first composite landscape bridge with one-time molding and a multi-dimensional curved surface, the Taopu Central Park Bridge breaks through the shackles of traditional bridge design and frees the landscape bridge to be more flexible and diverse in space. Like with “Liuyun Bridge”, the Taopu Central Park Bridge owes its conception and dynamic shape to Polymaker and their materials.
The printing process of this 3D printed landscape bridge went through nearly one hundred printing tests to be continuously optimized. The super-large gantry 3D printer, jointly developed by Shanghai Construction Group Co., Ltd. and Kuying Technology Co., Ltd., allows for more diverse printing of larger sizes while still improving the printing’s accuracy. The Taopu Central Park Bridge is also composed of Polymaker's PolyCore™ ASA-3012 material, so the bridge can withstand long-term exposure to the sun and rain.
Quanzhou Bridge
Polymaker installed China’s second 3D printed bridge in the ecological belt of Baiqi Lake in Quanzhou, Fujian in 2019 as the second collaboration between Shanghai Construction Group Co., Ltd., Polymaker, and Shanghai Kuying Technology Co., Ltd. Spanning 17.5 meters, the Quanzhou Bridge also uses Polymaker’s PolyCore™ ASA-3012 material for its body and drastically improves on the manufacturing time of traditional concrete grouting, completing its construction in only five weeks.
With the bridge’s manufacturing saving a considerable amount of time, it continues to compete with traditional grouting by providing strength that can withstand a pressure of two kilonewtons for each square meter, guaranteeing its ability to carry any amount of traffic. The Quanzhou Bridge utilizes a segmented design, unlike the Taopu Central Park Bridge, allowing its segments to be connected through a unique link mechanism to meet necessary mechanical requirements. Together, Polymaker's PolyCore™ ASA-3012 and the BGAM print the different components of the bridge to be assembled and painted for the finished construction, like with the printing process of the “Liuyun Bridge”.
The future of 3D printed bridges
Polymaker plays a role throughout the entire process of their 3D printed landscape bridges, covering many different facets from modeling, construction, and conception to data design. 3D printing technology truly emphasizes the "link of artistic inspiration with the power of science and technology" by pushing both sides to reach a product that stands above expectations. Polymaker’s application of 3D printing technology in landscape design greatly expands opportunities for technological innovation and exploration in the industry.
With 3D printing technology only continuing to grow, it has become an important consideration in constructing footbridges and large-sized printing quicker, with more cost effectiveness, and in a sustainable manner. Large-sized printing solutions are becoming more and more popular in different fields too, and Polymaker wants to fuel their growth by actively developing and producing materials that can bring ambitious projects to reality.
Without the material Polymaker has been creating, 3D printed bridges would never be as developed as they are now because Polymaker’s material not only provides the flexibility to meet any design’s needs, but also the strength to sustain the bridge for many years. Polymaker advances the world of 3D printing in more ways than only with their materials though. Their passion to push the industry and venture into unexplored territory has given 3D printing new capabilities and unimaginable possibilities.
Shanghai Construction Group Co., Ltd.:
Shanghai Construction Group Co., Ltd. is a leading enterprise in China's construction industry, ranking among the world's top 500 companies. Over the past sixty years, Shanghai Construction Group Co., Ltd. has repeatedly set records in the history of engineering construction in China and even in the world. It has contributed to many excellent projects in more than 100 cities across the country and in more than 30 countries and regions around the world. In recent years, Shanghai Construction Group Co., Ltd. has made every effort to promote national development, strengthen the synergy of the entire industry chain, and continue to form new commanding heights in business areas such as urban renewal, water conservancy, environmental governance, digital industrial construction, and construction services. They are now accelerating construction to become a widely acclaimed service provider for the whole life cycle of construction.
Shanghai Kuying Technology Co., Ltd.:
Shanghai Kuying Technology Co., Ltd. is a high-tech enterprise specializing in the research and development of super-large 3D printing solutions. The company adheres to the concept of "exploring future manufacturing methods" and is based on the innovative model of "integration of addition and reduction of materials, research and development of new materials, and intelligent control" in order to help manufacturing companies reduce costs and improve efficiency. The company’s existing intelligent equipment products include the Tech’s 5-Axis Milling and Additive Manufacturing Intergrated (BGAM), the high-speed pellet printer (SGAM), and the robotic additive manufacturing system (BRAM). These main products are widely used in architectural landscape, aerospace, shipbuilding, rail transit, energy, automobiles, medical products, and many other industries.
Footage of world's largest plastic 3D printer printing pedestrian bridge
Polymaker just released footage of Shanghai Construction Group’s 3D printer in the process of producing a pedestrian footbridge, which will take 30 days to complete as it will be 15 meters long and weigh 5,800kg. SGC has a reputation for going big as they built the second tallest building in the world, the Shanghai Tower. The 3D printer was built by Shenyang Machine Group and the extruder system was manufactured by Coin Robotic (who also built the bed), together totaling some $2.8 million in investment. Polymaker Industrial developed the ASA (acrylonitrile styrene acrylate) plastic for the print, a material chosen for its favorable properties of weather and chemical resistance, thermal stability, and toughness. To determine the best plastic for the job, Polymaker 3D printed a 5-meter version of the bridge with several different compounds before choosing AS100GF for its overall strength and printability. The bridge will be rated to hold 13 tons or four people per square meter, so strength is vitally important.
The plastic is 12.5% glass fibers by weight, adding strength and also reducing the warping effect that plagues large 3D prints. 3D Printing bigger isn’t as simple as just making a bigger printer because so much of 3D printing is related to heat retention and even heating, which becomes a trickier task the bigger the print/printer. In this case, the build chamber is 24 meters long, 4 meters wide, and 1.5 meters high, with a planned expansion to 3 meters high. That’s 144 cubic meters to keep heated, which is achieved by a large bellowed tent that moves with the gantry. The tent is heated to 38°C and blankets are placed on top of the print to slow the cooling process, allowing the polymer chains to relax without warping; the blankets also protect the print from dust. Yes, the build chamber is so large that technicians work inside the 3D printer while it’s operating to monitor the print and move the blankets.
But heating is only one 3D printing issue that’s exacerbated by increasing scale as there’s also layer levelness as well as bed and layer adhesion. For layers to bond well, they should be joined when they’re at a similar temperature; on this print, each layer takes several hours, so the previous layer has cooled significantly by the time the extruder comes back around for the next layer. The blankets and the glass fibers help slow this cooling, but the print head does a lot of work here by reheating the print with four 600°C hot air guns aimed around the extruder. The air guns ensure the print is always hot around where the extruder is working for maximum layer adhesion.
The layer levelness issue is solved here by a novel approach not seen on other 3D printers: tamping. Nozzles are round, meaning their extrusion is round, and when pushed flat as a layer they have a tapered top, which is not ideal for layer adhesion. For a desktop 3D printer with a nozzle size of 0.35mm, the taper is small enough to mostly not notice, but the SGC 3D printer uses a nozzle over 14x that size at 5mm so the tamping of the plastic right after it’s extruded makes a big difference in layer levelness and adhesion. And considering that, despite its gargantuan size and the fact that it’s extruding up to 8kg of plastic per hour, the printer is accurate to 0.1mm, those differences in levelness really matter. To get the first layer to adhere to the print bed, ASA pellets were glued to wooden planks that were then clamped to the steel bed. Sometimes the low-tech solution is the best solution.
A pedestrian bridge over a lake is a great way to showcase the largest 3D printed plastic object as it’s both an everyday, practical application and an interactive one that involves people touching and even relying upon (to keep them from getting wet) a 3D printed thing. Many people have never touched a 3D printed object and they still think of it as part fantasy and part future tech, so projects like this do a lot of good in terms of exposing the public to the reality and the possibilities of 3D printing.
