Project Introduction

SETTALL’s nuclear radiation imaging solution centers on high‑sensitivity nuclear radiation detection and visualized imaging capabilities, enabling users to more rapidly identify radiation anomalies, pinpoint radiation sources, map radiation distributions, and archive measurement data in complex environments—thereby enhancing on‑site detection efficiency and response accuracy.

I. Overview of the Plan

In scenarios such as nuclear facility operation and maintenance, radiation‑environment monitoring, nuclear emergency response inspections, customs port inspections, and scientific research and analysis, conventional radiation detection methods typically rely on numerical displays, dose monitoring, or spectral analysis. While these approaches are highly specialized, in real‑world field applications users often require a more intuitive way to visualize the location, spatial distribution, and intensity trends of radiation sources, enabling rapid situational assessment and supporting subsequent response actions.

SETTALL Nuclear radiation imaging solutions revolve around “ Anomaly detected — Quick positioning — Visual judgment — Decision support ” It integrates nuclear radiation detection, visible-light‑assisted observation, imaging analysis, and data‑processing capabilities, providing users with a more intuitive, efficient, and field‑ready approach to nuclear radiation monitoring. This solution is suitable for applications such as nuclear power plant surveillance, environmental radiation inspections, nuclear accident response, border‑crossing inspections, nuclear medicine research, scientific analysis, and specialized mission scenarios.

 

II. Industry Pain Points

1.  Radiation anomalies are difficult to identify visually.

Traditional equipment typically reports detection results in the form of numerical values or spectral lines, making it difficult for field personnel to quickly determine the precise location of radiation sources, their spatial distribution, and key risk areas.

2.  In complex environments, troubleshooting efficiency is low.

In complex environments such as nuclear facilities, accident sites, and border checkpoints, relying solely on single-point detection can easily lead to redundant inspections, thereby compromising overall detection efficiency.

3.  It places higher comprehensive demands on the equipment.

Users demand that devices deliver high‑performance detection while remaining portable, offering long battery life and robust protection, and capable of adapting to complex indoor and outdoor environments as well as the demands of mobile operations.

4.  It requires balancing on-the-spot judgment with data-driven insights.

On-site testing not only requires rapid identification of issues, but also demands the ability to retain data, facilitate analysis, and support subsequent assessments and report generation.

 

III. Project Objectives

This solution is designed for nuclear radiation detection and imaging applications, with a primary focus on helping users achieve the following objectives:

Enhance the efficiency of detecting radiation anomaly zones.
Enhancing the visualization capabilities for radiation source localization and imaging.
Enhance on-site troubleshooting efficiency in complex environments.
Balances professional testing performance with portability and mobility.
To provide more intuitive data support for nuclear safety monitoring, emergency response, and scientific research and analysis.

 

IV. Composition of the Plan

1.  Front-end nuclear radiation imaging equipment

As the core terminal of the system, it is used to perform radiation detection, radiation imaging, visible-light‑assisted observation, and on-site analysis.

2.  Visualization and Analysis Unit

Integrating radiation detection data with imaging information helps users gain a more intuitive understanding of the on-site radiation distribution.

3.  On-site Deployment and Operations Support Module

Targeting applications such as nuclear facility inspections, environmental monitoring, border security checks, and nuclear emergency response, this solution enhances on-site rapid deployment and mobile detection capabilities.

4.  Data Retention and Results Support Module

Supports the retention, review, and subsequent analysis of test data, providing a basis for report preparation, scientific research, and decision-making support.

 

V. Core Competencies

1.  Integrated Nuclear Radiation Detection and Imaging

The solution integrates radiation detection and imaging capabilities, enabling not only nuclear radiation monitoring but also the visualization of radiation distribution in a more intuitive manner, thereby enhancing on-site comprehension and decision-making efficiency.

2.  High-energy-resolution detection capability

The equipment adopts CdZnTe ( CZT ) The detector features high energy resolution and is suitable for applications such as nuclear radiation detection, imaging analysis, and data acquisition. According to the parameters currently listed on your official website, the detector’s dimensions are 12.9 cm³ , the energy spectrum range is 20–700 keV , with an imaging range of 20–150 keV , with an energy resolution of less than 6.5% @122keV (Room temperature).

3.  Operates at room temperature, offering greater practicality.

The device operates at room temperature, eliminating the need for complex cryogenic infrastructure, making it more suitable for real-world deployment and field operations.

4.  Modular scalability

The system features modular extensibility and configurability, making it easy to adapt to various imaging tasks and application requirements. The official website states that it supports… 25  Any combination of modules, up to a specified number.

5.  Visible-light-assisted observation capability

The device integrates visible-light imaging, enabling users to correlate radiometric data with on-site environmental information and thereby enhancing the efficiency of field identification and decision-making. The existing page on the official website indicates that the visible-light component employs… 1/2.7 inch CMOS , approximately pixels 200  Ten thousand, focal length 2–10mm 。

6.  Balancing portability and protection

The entire device weighs approximately 4.1 kg , supports longer battery life and features IP65 Protection rating, suitable for a wide range of outdoor and challenging environmental applications.

 

VI. Advantages of the Plan

More intuitive

Presenting radiation distribution via radiographic imaging is more conducive to rapid on-site assessment and communication than relying solely on numerical displays.

More efficient

By conducting visual scans of the target area, it helps to narrow the scope of investigations, reduce redundant inspections, and enhance overall operational efficiency.

More professional

Leveraging high-performance nuclear radiation detectors and advanced imaging capabilities, it balances detection accuracy, stability, and versatility across a wide range of applications.

More suitable for real-world combat

Balancing portability and mobility, room-temperature operation, battery life, and environmental protection, it better meets the demands of real-world applications.

More conducive to data support

It supports on-site testing, result storage, subsequent analysis, and management decision-making, thereby establishing a complete closed loop from testing to application.

 

VII. Application Scenarios

Nuclear Facility Safety Inspection

It is suitable for radiation inspection operations at nuclear power plants, nuclear facilities, and other key areas, enabling the monitoring of radiation levels in work zones, assisting in the identification of anomalous radiation sources, and enhancing inspection efficiency.

Radiation Environmental Monitoring

It is suitable for environmental radiation surveys in key areas, radiation distribution mapping, and verification of anomalous zones, helping to achieve more efficient environmental monitoring and trend analysis.

Nuclear Emergency Response and Accident Investigation

It is suitable for responding to radiological emergencies, conducting surveys of suspected contamination areas, and performing rapid assessments in high-risk environments, helping on-site personnel more quickly identify anomalous zones and support remediation efforts.

Customs, Ports, and Border Inspection

It is suitable for scenarios such as customs facilities, border checkpoints, and key transit corridors, providing auxiliary screening for suspicious radioactive materials or abnormal radiation sources. The existing content on the official website already clearly covers the scope of customs and border‑control inspections.

Nuclear Medicine and Research Analysis

It is suitable for radiopharmaceutical research and development, radioactive material analysis, studies of material structure, and related scientific experiments, providing support for imaging analysis and experimental research.

Space Radiation Detection and Special Mission Scenarios

It is suitable for space exploration, specialized scientific research missions, and high‑demand radiation‑analysis applications. The official website already highlights the areas of space‑based radiation detection and deep‑space exploration.

 

VIII. Typical Application Workflow

Step 1: Rapid Deployment

Upon arrival at the target area, the equipment is rapidly deployed and enters the on-site inspection phase.

Step 2: Regional Scanning

By leveraging radiation detection and imaging capabilities, the target area is scanned to rapidly identify suspected anomaly zones.

Step 3: Exception Localization

Based on visible-light–assisted observation and imaging results, the location, extent, and spatial distribution trends of the radiation source are assessed.

Step 4: Record the Results

Data from the test results shall be retained to provide a basis for subsequent verification, analysis, and report compilation.

Step 5: Auxiliary Handling

The results are used for inspection verification, emergency response, regional isolation, scientific research and analysis, and management decision support.

 

IX. Introduction to Core Equipment

The core equipment of this solution is designed to meet the needs of nuclear radiation detection and imaging, balancing professional detection performance, portability and mobility, and field adaptability. According to the publicly available pages on the official website, the model number of the core equipment is SSK/NW-RGX100 , adopt CdZnTe ( CZT ) Detector, capable of operating at room temperature, with nuclear radiation detection, radiation imaging, and visible-light‑assisted observation capabilities.

The main features of the equipment include:

High-sensitivity radiation detection capability
Higher energy resolution
Room-temperature operating conditions
Modular scalability
Visible-light-assisted observation
Portable design
Long endurance and environmental adaptability

 

X. Core Parameters

Nuclear Radiation Imaging SSK/NW-RGX100
Performance Parameters
Display screen	≥8 inches
Random Access Memory	4G
Display resolution	1280×800
Visible parameters
Visible light sensor	1/2.7-inch CMOS
Pixel pitch	1.55 μm (H) x 1.55 μm (V)
Focal length	2-10mm
Pixel	2-megapixel
Field of view angle	≥70°
Low illumination	Color: 0.002 Lux @ (F1.5);
Nuclear radiation parameters
Detector Type	Cadmium Zinc Telluride (CdZnTe, CZT) detector
Maximum Tolerated Dose	1Mcps/mm2
Detector size	12.9cm3
Energy spectrum range	20~700 keV
Imaging range	20-150keV
Optical camera	70° 1080P
Energy resolution	<6.5% 122 keV at room temperature
Field of view area	400 cm² at 1 meter
Physical parameters
Battery life	30h
Communication interface	Ethernet
Operating temperature	-0°C to +40°C, humidity less than 90%
Storage temperature	-5℃ to +50℃, humidity less than 90%
Battery capacity	50000mAh
Battery life	10 hours
External Power Supply	DC5V
Power consumption	≤5W
Protection rating	IP65
Weight	4.1Kg
Size	240 mm(L)x130 mm(W)x150mm(H）

 

XI. Eligible Customers

Nuclear power plants and entities related to the nuclear industry
Radiation Environmental Monitoring Agency
Relevant entities in nuclear emergency response and emergency management
Customs, port authorities, border defense agencies, and specialized security inspection units
Nuclear medicine, radiopharmaceutical research and development, and research institutes
High-Risk Area Monitoring and Special Mission Users

 

XII. Why Choose SETTALL

Strong technical integration capabilities

Systematically integrate nuclear radiation detection, imaging, visualization, and practical applications to enhance the overall maturity of the solution.

It’s not just about the equipment—it’s about a scenario‑driven approach to problem-solving.

We not only focus on device parameters but also on how customers identify issues, interpret results, and accomplish tasks in real-world scenarios.

Balances professional performance with real-world usability.

Balancing detection performance, portability and mobility, endurance, and environmental protection, it is better suited for deployment in complex environments.

Supports solution-based delivery.

It can be configured and optimized to meet customers’ specific task requirements, with tailored solutions that cater to diverse application scenarios.

 

XIII. Services and Support

Requirements Communication and Scenario Analysis
Configuration Recommendations for the Solution
Product selection support
Operational Training and Technical Guidance
After-sales protection and long-term service support

 

XIV. Conclusion

If you are seeking a nuclear radiation imaging solution that seamlessly integrates professional detection, visualized imaging, portability and mobility, and adaptability to real-world scenarios, SETTALL We can provide you with products and technical support that are better suited to your industry’s specific applications.