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PSF (Plastic Scintillating Fiber)

Kuraray's PSF: Capturing Radiation with Light.

PSF is a multilayered optical fiber with a core made of fluorescent polystyrene and wrapped with a methacrylic resin cladding. Because it can convert invisible radiation into light and transmit it, it is used in a wide range of applications from research to industrial use.

Photo: Plastic Scintillating Fiber (PSF)

Born from Kuraray's proprietary technology

Radiation-Detecting Fibers Used Worldwide

PSF (plastic scintillating fiber) was developed by Kuraray in the 1980s for radiation detection. With its characteristic of emitting light when exposed to radiation, it is used in a wide range of radiation detection applications, including cosmic ray observation, and is highly trusted as an international standard material.

Image: Plastic Scintillating Fiber (PSF)

PSF (Plastic Scintillating Fiber)

  • High light output: Easy to ensure detection sensitivity. Easy to extract signals even at low doses and long distances.
  • High dimensional accuracy: Assembled as designed and suitable for precise placement. Easy to create a reproducible detection system with minimal assembly variation.
  • Small variation in quality: leads to stable detection performance. Easier to stabilize operations by reducing the time and effort required for calibration and correction.

By Application: Recommended Type

  • Scintillation Fiber: This is the basic type that emits light when exposed to radiation and is used for detection.
  • Wavelength Converting Fiber (WLS): Suitable for applications that convert emission wavelengths to increase light-receiving efficiency.
  • Clear Fiber: Suitable for applications where transmission is desired with minimal loss of light.

Material and Composition of Plastic Scintillating Fibers

The light extraction performance of plastic scintillation fibers is highly dependent on the refractive index design of the core/cladding and the layer composition (single layer/bilayer). Multicladding increases confinement efficiency by increasing the refractive index difference, resulting in higher light collection efficiency than single cladding. The figure below shows the difference by cladding configuration and cross-sectional shape, and the table below shows reference values of refractive index and density for each material.

Round fiber

Single cladding

image: Round fiber [Single cladding]

Multi cladding

image: Round fiber [Multi cladding]

Square fiber

Single cladding

image: Square fiber [Single cladding]
MaterialRefractive indexDensity (g/cm3 )
Polystyrene (PS)nD = 1.591.05
Polymethyl Methacrylate (PMMA)nD = 1.491.19
Fluorinated Polymer (FP)nD = 1.421.43

Mechanism of Light Transmission

Kuraray's "multi-clad" luminescence theoretically emits about 70% brighter than conventional single-clad luminescence.

Single cladding

image: Single cladding

Multi cladding

image: Multi cladding

Description of Brand Name Display

Figure: Brand name label guide

Grade Lineup

Technical Information

Spectral and characteristic data

Technical data such as emission spectrum, decay time, and decay length can be listed. Please use this information for comparative purposes.

Image: Technical data

Performance

Name of an ExperimentTimeResearch InstitutionPSF Grade  
KLOE1994-1995INFNSCSF-81
CHORUS1993,1996CERN/Nagoya Univ.SCSF-81/SCSF-78
K2K1997KEKSCSF-78M
D01996-1998FNALY-11(250)M/Clear-PSM/SCSF-3HF(1500)M
CMS1998-1999CERNY-11(250)M/Clear-PSM
ATLAS1999-2000CERNY-11(200)M
MINOS2002.08FNAL/Caltech/Indiana Univ.Y-11(175)M/Clear-PS
STAR-EMC/EEMC2003.08BNLY-11(200)M/Clear-PSM
LHC-b2001-2002,2004CERNY-11(200)M/Clear-PSM
OPERA2003.08IN2P3Y-11(175)M
GlueX2009-2011JNALSCSF-78M
NOvA2009-2012FNALY-11(300)M
Telescope Array2014-2017ICRRY-11(200)M
LHCb upgrade2016-2017CERNSCSF-78M
Auger Prime2016-2018KIT/INFNY-11(300)M

Product Catalog

The catalog can be downloaded here.

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