Additive manufacturing by digital light processing: a review

被引:152
作者
Chaudhary, Rajat [1 ]
Fabbri, Paride [2 ]
Leoni, Enrico [2 ]
Mazzanti, Francesca [2 ]
Akbari, Raziyeh [1 ]
Antonini, Carlo [1 ]
机构
[1] Univ Milano Bicocca, Dept Mat Sci, Milan, Italy
[2] ENEA, Lab Tecnol Mat Faenza, Faenza, Italy
关键词
Digital light processing; Stereolithography; Vat polymerization; Dynamic mask stereolithography; Suspensions; CERAMIC COMPONENTS; FREEFORM FABRICATION; PRECERAMIC POLYMERS; SURFACE-ROUGHNESS; BOTTOM-UP; STEREOLITHOGRAPHY; LASER; COMPLEX; PARTS; PHOTOPOLYMERIZATION;
D O I
10.1007/s40964-022-00336-0
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Additive manufacturing is a layer-by-layer strategy enabling the advanced design and fabrication of complex 3D objects and structures, overcoming geometry limitations and reducing waste production compared to conventional technologies. Among various additive manufacturing technologies, digital light processing (DLP), is an additive manufacturing technology used to print photopolymer parts, using a projected light source to cure an entire layer at once. Initially developed for pure resins, recent advances have demonstrated the potential of DLP in the polymerization of ceramic and metal-loaded suspensions, enabling the fabrication of ceramic and metal components after proper debinding and sintering. Such flexibility increases the potential of DLP for different applications, ranging from dental implants and bone scaffolds to smart biomaterials for soft robotics, smart wearables, and microfluidic devices. The review provides an overview of DLP technology and its recent advances; specifically, the review covers the photopolymer properties, the ceramic and metallic feedstock preparation, and the light-matter interaction mechanism underpinning the printing and post-processing steps. Finally, a description of the current application is provided and complemented with future perspectives.
引用
收藏
页码:331 / 351
页数:21
相关论文
共 176 条
[61]   Fabrication of complex-shaped zirconia ceramic parts via a DLP-stereolithography-based 3D printing method [J].
He, Rongxuan ;
Liu, Wei ;
Wu, Ziwei ;
An, Di ;
Huang, Meipeng ;
Wu, Haidong ;
Jiang, Qiangguo ;
Ji, Xuanrong ;
Wu, Shanghua ;
Xie, Zhipeng .
CERAMICS INTERNATIONAL, 2018, 44 (03) :3412-3416
[62]   Three-dimensional printing to plan intracardiac operations [J].
Henn, Matthew C. ;
Mokadam, Nahush A. .
JTCVS TECHNIQUES, 2021, 9 :101-108
[63]   Prospective use of the 3D printing technology for the microstructural engineering of Solid Oxide Fuel Cell components [J].
Hernandez-Rodriguez, E. M. ;
Acosta-Mora, P. ;
Mendez-Ramos, J. ;
Chinea, E. Borges ;
Esparza Ferrera, P. ;
Canales-Vazquez, J. ;
Nunez, P. ;
Ruiz-Morales, J. C. .
BOLETIN DE LA SOCIEDAD ESPANOLA DE CERAMICA Y VIDRIO, 2014, 53 (05) :213-216
[64]   Ceramic suspensions suitable for stereolithography [J].
Hinczewski, C ;
Corbel, S ;
Chartier, T .
JOURNAL OF THE EUROPEAN CERAMIC SOCIETY, 1998, 18 (06) :583-590
[65]   Development of an innovative, high speed, large-scaled, and affordable metal additive manufacturing process [J].
Hoa Xuan Nguyen ;
Suen, Hawke ;
Poudel, Bibek ;
Kwon, Patrick ;
Chung, Haseung .
CIRP ANNALS-MANUFACTURING TECHNOLOGY, 2020, 69 (01) :177-180
[66]   A Digital Light Processing™ update -: status and future applications [J].
Hornbeck, LJ .
PROJECTION DISPLAYS V, 1999, 3634 :158-170
[67]  
Hull CW, 1986, APP PROD 3 DIM OBJ S
[68]   A review of laser engineered net shaping (LENS) build and process parameters of metallic parts [J].
Izadi, Mojtaba ;
Farzaneh, Aidin ;
Mohammed, Mazher ;
Gibson, Ian ;
Rolfe, Bernard .
RAPID PROTOTYPING JOURNAL, 2020, 26 (06) :1059-1078
[69]  
Jacobs P. F., 1992, Rapid prototyping manufacturing: fundamentals of stereolithography
[70]  
Jang JH, 2000, J AM CERAM SOC, V83, P1804, DOI 10.1111/j.1151-2916.2000.tb01467.x