Rapid 3D fabrication of micro-optical components for tailored imaging and sensing applications

被引:6
作者
Salerni, Antony D. [1 ]
Ruiz-Cadalso, Daniel [1 ]
Furlong, Cosme [1 ]
机构
[1] Worcester Polytech Inst, CHSLT Ctr Holog Studies & Laser MicromechaTron, Chem & Biochem Dept, Mech Engn Dept, Worcester, MA 01609 USA
来源
2021 IEEE RESEARCH AND APPLICATIONS OF PHOTONICS IN DEFENSE CONFERENCE (RAPID) | 2021年
关键词
imagers; micro-optics; micro-sensors; rapid prototyping; two-photon polimarization;
D O I
10.1109/RAPID51799.2021.9521401
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
The development of two-photon lithographic technologies is enabling the fabrication of 3D structures at sub-micron resolution with optical materials. The freedom allotted by these technologies allows for the fabrication of miniaturized optical systems and complex micro-optical components. Additionally, the ability to rapid prototype micro-optical components with these technologies makes it suitable for providing an option for custom tailored imaging applications that include quantitative imaging modalities. Utilizing such technologies, an advanced approach is taken for the development of a fiberscope for specific imaging applications. Sub-millimeter freeform shape lenses, aperture, and micro-optical housing are fabricated as distal-end components to replace conventional micro-optical components of an endoscopic platform to enable long-working distance, high-resolution, imaging applications. Beam shapers are also fabricated at the distal ends of optical fibers to reduce the numerical aperture of each illumination fiber, aligning the area of illumination to the area observed by the imager. Optimization of beam shapers serves to provide relatively uniform and non-saturated illumination of the target area. Together, this custom optical system can outperform commercially available equivalents and is an example of how this 3D fabrication technology can offer improved alternatives to conventional micro-optics of today. Moving forward, development and incorporation of more complex micro-optical components, such as diffractive optical elements together with additional 3D printed sensors, can serve to bring quantitative power to further expanding the applicability of new miniaturized imaging and sensing systems. Examples to illustrate capabilities are presented.
引用
收藏
页数:1
相关论文
共 46 条
[31]   The fabrication of rapid prototype based 3D PCL and PLGA scaffolds using precision deposition system [J].
Kim, Jong Young ;
Yong, Jun Jin ;
Park, Eui Kyun ;
Kim, Shin-Yoon ;
Cho, Dong-Woo .
TISSUE ENGINEERING AND REGENERATIVE MEDICINE, 2008, 5 (03) :506-511
[32]   A novel method in the design and fabrication of dental splints based on 3D simulation and rapid prototyping technology [J].
Lin, YP ;
Zhang, SL ;
Chen, XJ ;
Wang, CT .
INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2006, 28 (09) :919-922
[33]   Fabrication of extended-release patient-tailored prednisolone tablets via fused deposition modelling (FDM) 3D printing [J].
Skowyra, Justyna ;
Pietrzak, Katarzyna ;
Alhnan, Mohamed A. .
EUROPEAN JOURNAL OF PHARMACEUTICAL SCIENCES, 2015, 68 :11-17
[34]   3D Printing of Micro-Optic Spiral Phase Plates for the Generation of Optical Vortex Beams [J].
Wei, Heming ;
Amrithanath, Abhishek K. ;
Krishnaswamy, Sridhar .
IEEE PHOTONICS TECHNOLOGY LETTERS, 2019, 31 (08) :599-602
[35]   Clinical Applications of Physical 3D Models Derived From MDCT Data and Created by Rapid Prototyping [J].
Esses, Steven J. ;
Berman, Phillip ;
Bloom, Allan I. ;
Sosna, Jacob .
AMERICAN JOURNAL OF ROENTGENOLOGY, 2011, 196 (06) :W683-W688
[36]   PopCore: Personal Fabrication of 3D Foamcore Models for Professional High-Quality Applications in Design and Architecture [J].
Abdullah, Muhammad ;
Seidel, Laurenz ;
Ben Wernicke ;
Gouasmi, Mehdi ;
Hackl, Anton ;
Kern, Thomas ;
Lempert, Conrad ;
Lempert, Clara ;
Bizer, David ;
Storch, Wieland ;
Fang, Chiao ;
Baudisch, Patrick .
9TH ACM SYMPOSIUM ON COMPUTATIONAL FABRICATION, SCF 2024, 2024,
[37]   Process optimization for a 3D optical coupler and waveguide fabrication on a single substrate using buffer coat material [J].
Summitt, Chris ;
Wang, Sunglin ;
Johnson, Lee ;
Zaverton, Melissa ;
Ge, Tao ;
Milster, Tom ;
Takashima, Yuzuru .
ADVANCED FABRICATION TECHNOLOGIES FOR MICRO/NANO OPTICS AND PHOTONICS VIII, 2015, 9374
[38]   Manufacture of thermoplastic molds by fused filament fabrication 3D printing for rapid prototyping of polyurethane foam molded products [J].
Guerrero-Vacas, Guillermo ;
Gomez-Castillo, Jaime ;
Rodriguez-Alabanda, Oscar .
RAPID PROTOTYPING JOURNAL, 2024, 30 (11) :32-49
[39]   Polarization Micro-Optics: Circular Polarization From a Fresnel Rhomb 3D Printed on an Optical Fiber [J].
Bertoncini, Andrea ;
Liberale, Carlo .
IEEE PHOTONICS TECHNOLOGY LETTERS, 2018, 30 (21) :1882-1885
[40]   Demonstrating PopCore: Personal Fabrication of 3D Foamcore Models for Professional High-Quality Applications in Design and Architecture [J].
Abdullah, Muhammad ;
Seidel, Laurenz ;
Ben Wernicke ;
Gouasmi, Mehdi ;
Hackl, Anton ;
Kern, Thomas ;
Lempert, Conrad ;
Lempert, Clara ;
Bizer, David ;
Storch, Wieland ;
Fang, Chiao ;
Baudisch, Patrick .
PROCEEDINGS OF THE 37TH ANNUAL ACM SYMPOSIUM ON USER INTERFACE SOFTWARE AND TECHNOLOGY, UIST ADJUNCT 2024, 2024,