3D-printing of transparent granulate materials for light guides and scintillation detectors

被引:0
|
作者
Weitzel, Q. [1 ]
Bitar, A. [1 ]
Brogna, A. S. [1 ]
Deucher, P. [1 ,2 ]
Kurt, E. A. [1 ]
Mpoukouvalas, A. [1 ]
Schoenfelder, S. [1 ]
Steiger, H. [1 ]
Theobald, P. [1 ]
Wurm, M. [2 ]
机构
[1] Johannes Gutenberg Univ Mainz, Detector Lab, PRISMA Cluster Excellence, Staudingerweg 9, D-55128 Mainz, Germany
[2] Johannes Gutenberg Univ Mainz, Inst Phys, Staudingerweg 7, D-55128 Mainz, Germany
关键词
Additive manufacturing; Light guides; Scintillation detectors;
D O I
10.1016/j.nima.2022.167682
中图分类号
TH7 [仪器、仪表];
学科分类号
0804 ; 080401 ; 081102 ;
摘要
Additive manufacturing techniques have advanced significantly and get more and more interesting also for the development of active parts of particle detectors. The main advantages are the flexibility in building 3D-forms, as well as fast prototyping cycles. For many detector applications it is crucial to use well-tested materials to avoid aging problems. Printers working with granulates allow the direct printing of original materials, including the usage of several different materials at the same time. This is very attractive, for example, for segmented and 3D-integrated detectors like calorimeters or trigger veto systems based on plastic scintillators coupled to photodetectors. In this work, we focus on the printing of transparent plastic granulates. We compare different thermoplastics as base material, particularly polymethylmethacrylate (PMMA) and polystyrene (PS). The printing process is ARBURG Plastic Freeforming featuring in-line drying, plasticizing with melting points up to 350 degrees C and high-frequency droplet discharging. The main challenges are the transparency of the printed parts and their surface quality. The former is investigated using a UV/Vis spectrometer, the latter using a confocal 3D-microscope. We present a comparison to reference samples and discuss potential future applications of this technology.
引用
收藏
页数:5
相关论文
共 50 条
  • [1] 3D-printing nanocrystals with light
    Pan, Jia-Ahn
    Talapin, Dmitri V.
    SCIENCE, 2022, 377 (6610) : 1046 - 1047
  • [2] 3D-printing yields structured light
    Ramachandran, Siddharth
    NATURE PHOTONICS, 2022, 16 (09) : 618 - 619
  • [3] 3D-printing yields structured light
    Siddharth Ramachandran
    Nature Photonics, 2022, 16 : 618 - 619
  • [4] 3D printing of composite reflectors for enhanced light collection in scintillation detectors
    Sokolov, Petr S.
    Komissarenko, Dmitrii A.
    Belus, Svetlana K.
    Dosovitskiy, Georgy A.
    Kozlov, Dmitry Yu
    Dosovitskiy, Alexey E.
    Korzhik, Mikhail V.
    OPTICAL MATERIALS, 2020, 108
  • [5] Color-Managed 3D-Printing with highly Translucent Printing Materials
    Arikan, Can Ates
    Brunton, Alan
    Tanksale, Tejas Madan
    Urban, Philipp
    MEASURING, MODELING, AND REPRODUCING MATERIAL APPEARANCE 2015, 2015, 9398
  • [6] Lignin based 3D-printing materials: Printability and performance
    Ngoc Nguyen
    Barnes, Sietske
    Meek, Kelly
    Bowland, Christopher
    Keum, Jong
    Naskar, Amit
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2018, 255
  • [7] MECHANICAL PROPERTIES OF MATERIALS OBTAINED BY 3D-PRINTING TECHNOLOGY
    Bochnia, J.
    ENGINEERING MECHANICS 2017, 2017, : 174 - 177
  • [8] Comparison of biofouling on 3D-printing materials in the marine environment
    Ryley, Matthew
    Carve, Megan
    Piola, Richard
    Scardino, Andrew J.
    Shimeta, Jeff
    INTERNATIONAL BIODETERIORATION & BIODEGRADATION, 2021, 164 (164)
  • [9] A system to measure the complex permittivity of 3D-printing materials
    Alimenti, Andrea
    Pompeo, Nicola
    Torokhtii, Kostiantyn
    Pittella, Erika
    Piuzzi, Emanuele
    Silva, Enrico
    2022 IEEE INTERNATIONAL CONFERENCE ON FLEXIBLE AND PRINTABLE SENSORS AND SYSTEMS (IEEE FLEPS 2022), 2022,
  • [10] 3D-Printing Company Adds Materials, Italian Firms
    Wolff, Ilene
    MANUFACTURING ENGINEERING, 2022, 169 (06): : 12 - 12