products

SiPM Detector, SiPM scintillator detector

short description:

Kinheng designed SiPM scintillator detector based on various scintillators, S series detectors use silicon photodiodes(SiPM) instead of traditional photomultiplier tubes(PMT) to detect gamma rays.


Product Detail

Product Tags

Product Introduction

Kinheng can provide scintillator detectors based on PMT, SiPM, PD for radiation spectrometer, personal dosimeter, security imaging and other fields.

1. SD series detector

2. ID series detector

3. Low energy X-ray detector

4. SiPM series detector

5. PD series detector

Products

Series

Model No.

Description

Input

Output

Connector

PS

PS-1

Electronic module with socket, 1”PMT

14 Pins

 

 

PS-2

Electronic module with socket& high/ low power supply-2”PMT

14Pins

 

 

SD

SD-1

Detector. Integrated 1” NaI(Tl) and 1”PMT for Gamma ray

 

14 Pins

 

SD-2

Detector. Integrated 2” NaI(Tl) and 2”PMT for Gamma ray

 

14Pins

 

SD-2L

Detector. Integrated 2L NaI(Tl) and 3”PMT for Gamma ray

 

14 Pins

 

SD-4L

Detector. Integrated 4L NaI(Tl) and 3”PMT for Gamma ray

 

14 Pins

 

ID

ID-1

Integrated Detector, with 1” NaI(Tl), PMT, electronics module for Gamma ray.

 

 

GX16

ID-2

Integrated Detector, with 2” NaI(Tl), PMT, electronics module for Gamma ray.

 

 

GX16

ID-2L

Integrated Detector, with 2L NaI(Tl), PMT, electronics module for Gamma ray.

 

 

GX16

ID-4L

Integrated Detector, with 4L NaI(Tl), PMT, electronics module for Gamma ray.

 

 

GX16

MCA

MCA-1024

MCA, USB type-1024 Channel

14 Pins

 

 

MCA-2048

MCA, USB type-2048 Channel

14Pins

 

 

MCA-X

MCA, GX16 type Connector-1024~32768 channels available

14Pins

 

 

HV

H-1

HV Module

 

 

 

HA-1

HV Adjustable Module

 

 

 

HL-1

High/Low Voltage

 

 

 

HLA-1

High/Low Adjustable Voltage

 

 

 

X

X-1

Integrated detector-X ray 1” Crystal

 

 

GX16

S

S-1

SIPM Integrated Detector

 

 

GX16

S-2

SIPM Integrated Detector

 

 

GX16

SD series detectors encapsulate crystal and PMT into one housing, which overcomes the hygroscopic disadvantage of some crystals including NaI(Tl), LaBr3:Ce, CLYC. When packaging PMT, internal geomagnetic shielding material reduced the influence of geomagnetic field on the detector. Applicable for pulse counting, energy spectrum measurement and radiation dose measurement.

PS-Plug Socket Module   
SD- Separated Detector    
ID-Integrated Detector
H- High Voltage
HL- Fixed High/Low Voltage
AH- Adjustable High Voltage
AHL- Adjustable High/Low Voltage
MCA-Multi Channel Analyzer  
X-ray Detector
S-SiPM Detector
SiPM Detector 1

S-1Dimension

SiPM Detector

S-1 Connector

SiPM Detector 5

S-2 Dimension

SiPM Detector

S-2 Connector

Properties

Type Properties

S-1

S-2

Crystal Size 1” 2”
SIPM 6x6mm 6x6mm
SIPM Numbers 1~4 1~16
Storage Temperature -20 ~ 70℃ -20 ~ 70℃
Operation Temperature -10~ 40℃ -10~ 40℃
HV 26~+31V 26~+31V
Scintillator NaI(Tl),CsI(Tl),GAGG,CeBr3,LaBr3 NaI(Tl),CsI(Tl),GAGG,CeBr3,LaBr3
Humidity ≤70% ≤70%
Signal Amplitude -50mv -50mv
Energy Resolution <8% <8%

Application

Radiation dose measurement is the process of quantifying the amount of radiation to which a person or object is exposed. It is an important aspect of radiation safety and is commonly used in industries such as healthcare, nuclear energy and research. Radiation dosimetry is critical to assessing potential health risks, determining appropriate safety protocols, and ensuring compliance with regulatory standards. Regular monitoring of radiation dose helps protect individuals from overexposure and minimizes potential adverse effects of radiation.

Energy measurement refers to the process of quantifying the amount of energy present in a system or being transferred between systems. Energy is a fundamental concept in physics and is defined as the ability to do work or cause changes in a system. X-RAY Gamma Ray energy can be measured using devices such as photodetectors.

Spectrum analysis, also known as spectroscopy or spectral analysis, is a science and technology for studying and analyzing various components of complex signals or substances based on their spectral properties. It involves the measurement and interpretation of energy or intensity distributions at different wavelengths or frequencies.

Nuclide identification is commonly used in the fields of nuclear physics, nuclear chemistry, and radiation detection. It involves analyzing the radiation emitted by nuclides and determining the specific types of nuclides present. There are various methods for nuclide identification depending on the purpose and application such as: Gamma spectroscopy, Alpha energy spectrum, Beta Spectroscopy, Mass spectrometry, Neutron Activation Analysis, etc. Each method has its advantages and limitations, and the choice of technique depends on the specific requirements of the analysis. Nuclide identification plays a vital role in fields as diverse as nuclear energy, medical diagnostics, environmental monitoring, and forensics.


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