Product Description
Standard Features
| Item | Specification |
| Internal dimension | 450W*450D*500Hmm (100L) |
| Temperature range | RT+10~ 60 (suggest to use 402) |
| Temperature Fluctuation | 1 |
| Ozone concentration | 50~1000 pphm, adjustable (suggest to use 50pphm) |
| Ozone concentration deviation | 10% |
| Sample holder rotation | 360 degree rotation |
| Sample holder | 2pcs removable sample tray, SUS#304 stainless steel |
| Temperature controller | Programmable touch screen controller |
| Ozone concentration analysis | Concentration analysis meter |
| Ozone generator | High pressure silence discharge type |
| Protection system | Leakage, short circuit, over temperature, over heat |
I. Core functions and technical highlights of the equipment
1. Dynamic visualization of cracks
High-definition imaging system: Built-in 4K industrial camera or macro microscope captures the micro-morphology of cracks on the material surface in real time (crack length, density, direction).
AI Image Recognition: Automatically analyze the percentage of cracked area through algorithm (0.1%-99.9% accuracy), and generate crack rating (e.g., ISO 4587 standard 1-5). AI image recognition: automatically analyze the percentage of cracked area by algorithm (0%-99.9% accuracy)
2. Precise control of environmental parameters
Ozone concentration gradient: Supports 20-500 ppm multi-level settings with 1 ppm step accuracy to simulate low to high ozone exposure scenarios.
Compound environment simulation: integrated temperature (-40C-80C), humidity (20-95% RH), vibration (optional 0-50 Hz) multi-parameter synergistic control.
3. Intelligent testing process
Automatic rating system: automatically determine the cracking level according to preset standards (e.g. ASTM D572, ISO 1436) and generate reports.
Data traceability and sharing: encrypted storage of experimental data, support for cloud synchronization and LIMS system docking.
Cracking Rating Determination Method
1. Macro crack rating
- Classification of grades:
Grade 1: no cracks or tiny cracks (<0.1 mm).
Grade 2: Localized cracks (0.1-1 mm, low density).
Grade 3: medium cracks (1-5 mm, covering 10-30% of the area).
Grade 4: Large cracks (>5 mm, covering 30%-70% of the area).
Grade 5: severe cracking (>70% of covered area, material failure).
2. Microscopic crack analysis
- Crack density: number of cracks per unit area (cm).
- Crack expansion rate: increase in crack length per hour (m/h).
Typical application scenarios
1. Material aging research
- Cracking grade prediction of rubber products (tires, seals) under long-term ozone exposure.
- Plastic film (e.g. PE, PP) aging assessment under the synergistic effect of UV + ozone.
2. Validation of automotive parts
- Durability testing of automotive wire harness insulation and sealant under dynamic vibration + high ozone environment.
3. New energy field
- Insulation degradation analysis of lithium battery diaphragm under high temperature, high humidity + ozone environment.
Precision Ozone Cracking EvaluationThis equipment uses PID closed-loop control to maintain stable ozone concentrations, enabling precise evaluation of rubber resistance to ozone-induced cracking. The large, durable chamber with a tempered glass window allows for safe observation during testing, while microcomputer or touch screen controls facilitate easy operation and programmable test parameters.
Robust Safety and Quality FeaturesManufactured with Stainless Steel 304 and fitted with over-temperature protection, leakage alarms, and a programmable timer, this unit assures superior safety and longevity. Automatic timing, adjustable humidity, and a floor-standing design provide convenience and reliability for ongoing testing applications in various research and production settings.
FAQ's of Cracking level evaluation ozone testing machine:
Q: How does the ozone testing machine evaluate cracking levels in rubber specimens?
A: The machine subjects rubber samples to controlled ozone exposure within a stainless steel chamber, using PID closed-loop control to maintain precise ozone concentrations from 0-100 ppm. Specimens are mounted in adjustable fixtures, exposed for preset durations, and visually inspected through a tempered glass window to evaluate cracking resistance as per standard industry practices.
Q: What are the primary applications of this cracking evaluation machine?
A: This equipment is primarily used for rubber vulcanization aging tests and crack resistance evaluations. Quality control labs, R&D facilities, and manufacturers rely on it to determine the durability of rubber products against ozone-induced aging, supporting improvements in product development and compliance with industry standards.
Q: When should ozone resistance testing be performed during the rubber manufacturing process?
A: Ozone resistance testing is typically conducted post-vulcanization to assess the long-term durability of finished rubber products. Manufacturers often test samples before market release or during R&D phases to ensure compliance and optimize formulations for enhanced longevity and performance in real-world applications.
Q: Where can this ozone testing machine be installed and used?
A: Designed for floor-standing installation, the machine is suitable for laboratories, research institutions, and manufacturing quality control departments. Its moderate size and operating requirements (AC 220V, ambient temperature 5C~35C) make it versatile for various testing environments.
Q: What is the process for using the crack level evaluation ozone tester?
A: First, specimens are clamped using adjustable fixtures. Operators set ozone concentration, temperature, humidity, and timer using the touch screen or microcomputer interface. The machine then automatically exposes the samples to ozone, allowing visual monitoring through the observation window. After testing, specimens are inspected for cracks to determine resistance levels.
Q: How can users benefit from the machine's safety and automation features?
A: With over-temperature protection, leakage alarms, and programmable operation, users gain peace of mind during testing, reducing risk of damage and ensuring consistent, unattended operation. Automated timing and environment control enhance efficiency and accuracy, minimizing human error and improving laboratory workflow.