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Jie YIN (Shanghai Institute of Ceramics Chinese Academy of Sciences)31/08/2026, 13:40Sintering for additive manufacturing2. Invited speaker (by invitation only)
SiC-based Ceramic composites are promising for usages as various large-scale and complex-shaped components. However, the intrinsic brittle nature of SiC ceramics inhibited their wide application. Incorporation of chopped carbon fiber as a reinforcing phase could enhance its reliability. During recent years, efforts have been devoted to fast forming techniques to reduce excess carbon reduction....
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Elisa Torresani (San Diego State university)31/08/2026, 14:10Sintering for additive manufacturing2. Invited speaker (by invitation only)
In this study, the sintering behavior of stainless steel 316L components produced by binder jetting process is detailed. It explores the effects of initial particle/pores distribution, gravity, and friction on sintering, leading to anisotropic shrinkage and shape distortions. Dilatometry tests were conducted to experimentally investigate the anisotropy behavior and microstructural evolution at...
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Huisheng Tian (Shanghai Institute of Ceramics, Chinese Academy of Sciences)31/08/2026, 14:40Sintering for additive manufacturing3. Oral presentation
Directional thermal transport materials enable anisotropic heat flow, thereby enhancing the efficiency of thermal management systems. These materials have found broad applications in aerospace, electronics, and automotive industries. Silicon carbide (SiC) based composites, with their exceptional properties including high modulus, thermal stability, and superior thermal conductivity, serve as...
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Jiayi Geng (Shanghai Institute of Ceramics, Chinese Academy of Sciences)31/08/2026, 15:00Sintering for additive manufacturing3. Oral presentation
Direct Selective Laser Sintering (DSLS) of SiC ceramics offers a rapid and efficient approach for fabricating complex shaped porous SiC structures, positioning it as a promising additive manufacturing technique for such materials. However, the inherent difficulty of maintaining a stable liquid phase in SiC introduces challenges during laser based solid state sintering, such as slow diffusion...
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Dr Bram Neirinck (Schaeffler Aerosint SA)31/08/2026, 15:20Sintering for additive manufacturing3. Oral presentation
In the current day industry laser based Additive Manufacturing (AM) of metals is a well-established production technique. Its main limitation, linked to inherent the rapid melting and solidification, is the narrow range of compatible materials. In comparison, sintering based AM offer a potentially much larger library to select from, including many of the traditional Powder Metallurgical...
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Ms Chantal-Liv Lehmann (wbk Institute of Production Science)Sintering for additive manufacturing3. Oral presentation
Vat photopolymerization (VPP) enables high-resolution additive manufacturing of ceramic components and offers significant potential for multi-material processing. A key challenge is the development of compatible binder systems that ensure defect-free debinding and subsequent sintering, particularly at material interfaces. In this work, a versatile binder system was developed and applied to...
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Julian Fanghanel (Pennsylvania State University)Sintering for additive manufacturing1. Plenary speaker (by invitation only)
The processing of electroceramic materials remains foundational to the trillion-dollar electronics industry, integral to our contemporary computational, communication, and Artificial Intelligence infrastructure. This lecture provides a comprehensive review of the state-of-the-art in electroceramic processing, spanning established, high-speed manufacturing and a transformative emerging...
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Christopher Lankhof (Delft University of Technology)Sintering for additive manufacturing3. Oral presentation
Silica glass is a versatile material prized for its transparency, chemical and thermal resistance. While it has been traditionally manufactured via glass blowing and the float glass method, recent advances in additive manufacturing (AM) for glass are enabling previously unattainable design freedom. One of the most widely used AM methods is based on powder processing, where a photoresin laden...
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Jošt Oblak (Jozef Stefan Institute, Advanced Materials Department)Sintering for additive manufacturing4. Poster presentation
Vat photopolymerization based additive manufacturing enables the fabrication of complex ceramic components, but the final performance of printed parts is largely determined by debinding and sintering rather than by the printing step. In practice, low molecular weight acrylates are commonly used to obtain the rheology required for high ceramic loadings, yet understanding how binder chemistry...
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Dr Scott Reeve (Carbolite Gero GmbH & Co. KG)Sintering for additive manufacturing3. Oral presentation
The "Federal Climate Protection Act" has increased carbon dioxide reduction targets. However, for most energy intensive manufacturing processes, reliable and comparable data is not yet available. In Metal Injection Moulding (MIM) two different types of batch furnaces are available: either furnaces with a heating cassette made from graphite or from metallic materials such as tungsten or...
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Inge Lindemann (Fraunhofer IFAM Dresden)Sintering for additive manufacturing2. Invited speaker (by invitation only)
Electrical steel sheets are conventionally produced by rolling followed by punching. With the ongoing electrification there is a growing demand for thinner laminations. However, further thickness reduction by conventional manufacturing is challenging. Moreover, alloy design is limited to compositions with sufficient ductility for mechanical processing.
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Additive screen printing represents an... -
Tesfaye Molla (The University of Melbourne)Sintering for additive manufacturing3. Oral presentation
Anisotropic shrinkage during sintering is limiting the widespread adoption of Binder Jet Additive Manufacturing (BJAM) by undermining its ability to produce near-net-shape parts. While emerging evidence indicates that powder segregation during BJ printing induces particle-size heterogeneities, its influence on the anisotropic sintering of BJ-printed samples has not been explored. This study...
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Christian WeckSintering for additive manufacturing3. Oral presentation
Metal Binder Jetting (MBJ) combined with sintering enables Additive Manufacturing (AM) of carbide rich steels that are standard in tooling but are prone to cracking in beam based AM.
For high-speed steel HS6 5 3 (1.3344, AISI M3) and cold-work steel X245VCrMo10 5 1 (AISI A11) we developed printing, debinding and sintering parameters to yield crack free, low distortion parts. We map the...
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Antonio Maria Asensio (Catalonia Institute for Energy Research (IREC))Sintering for additive manufacturing3. Oral presentation
The development of alternative electrolyte materials with higher ionic conductivity than conventional 8mol% yttria-stabilized zirconia (8YSZ) is of strong interest for solid oxide cells, particularly when combined with techniques such as ceramic additive manufacturing. Among these materials, ScSZ exhibits superior ionic conductivity; however, Sc-doped electrolytes been reported to promote the...
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Mr Bo Qian (Shanghai University)Sintering for additive manufacturing3. Oral presentation
Interlayer bonding in Fused Deposition Modeling (FDM) is governed by viscous sintering–driven coalescence of adjacent polymer filaments, which controls porosity evolution and mechanical integrity. However, a quantitative description linking material rheology, processing conditions, and neck growth kinetics remains incomplete. In this work, a physics-based theoretical model is developed to...
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