High-Performance Geiger-Mueller Tube Radiation Detector Accurate Radiation Measure Nuclear Radiation Detection

• Warranty: 12 Months
• Portable: Portable
• Form: Flatbed
• Application: Security Check, Industrial
• Type: Industrial High-definition X-ray Detector
• Customized: Non-Customized
• Model NO.: HM-ND01
• Alarm Form: Display Alarm
• Precision: 0.01usv/H,0.01msv/H
• Alarm Threshold: 0~5000usv/H
• Sensitivity: Z2.2cps/Usv/H
• Battery Capacity: 1000mAh
• Response Time: 1-3s
• Detection Type: Beta; Gamma; X Ray
• Radiation Dose Rate Range: 0.01usv/H ~ 50msv/H
• Transport Package: Carton
• Specification: 16*5*7cm
• Trademark: OEM
• Origin: China
• HS Code: 85311000
• Production Capacity: 3000 PCS Each Month

Product Description

 

Nuclear radiation electron detectors, also known as electron detectors or radiation detectors, are devices designed to detect and measure the presence of electrons produced by nuclear radiation. These detectors play a crucial role in various fields, including scientific research, nuclear energy, healthcare, and environmental monitoring. Let's explore their functions and principles:

Functions of Nuclear Radiation Electron Detectors:

1. Detection: Electron detectors are used to detect the presence of electrons emitted by radioactive materials or generated through nuclear processes. They provide a means to identify and quantify electron radiation.

2. Measurement: These detectors enable the measurement of electron energy, intensity, and flux. They provide valuable data for understanding radiation levels, conducting research, and monitoring radiation safety.

3. Dosimetry: Electron detectors are essential in radiation dosimetry, which involves measuring the absorbed dose of radiation. They help assess potential health risks and ensure the safety of individuals working with radioactive materials or in radiation environments.

4. Quality Control: Electron detectors are utilized in quality control processes, such as verifying the integrity of radiation shielding materials, assessing the performance of medical imaging devices, and monitoring radiation levels in industrial settings.

Principles of Nuclear Radiation Electron Detectors:

1. Ionization: Electron detectors operate based on the principle of ionizing radiation. When high-energy electrons pass through the detector material, they interact with atoms, causing ionization by displacing electrons from their orbits and creating charged particles.

2. Electric Field and Charge Collection: Electron detectors utilize an electric field within the detector material to attract and accelerate the charged particles produced by ionization. This electric field helps guide the charged particles towards collection electrodes.

3. Current or Charge Measurement: The movement of charged particles within the detector generates an electrical signal in the form of current or charge. This signal is measured and processed to determine the presence, energy, and intensity of the detected electron radiation.

4. Types of Electron Detectors: There are various types of electron detectors, including gas-filled detectors (such as Geiger-Mueller tubes and proportional counters), scintillation detectors, solid-state detectors (such as semiconductor detectors), and Cherenkov detectors. Each type operates based on different principles but shares the common goal of electron detection and measurement.