Product Profile • The W416 2.0 Infrared Method Water Vapor Transmission Rate Tester is a high-end precision testing instrument for packaging materials, newly developed and upgraded by Guangzhou Standard International R&D Team in full compliance with the requirements of **GB/T 26253** and **ASTM F1249** standards as well as market demands. • Based on the testing principle of infrared moisture analysis sensors, it provides wide-range, high-efficiency water vapor transmission rate (WVTR) testing for high, medium and low barrier materials. • It is suitable for testing the water vapor transmission performance of films, sheets, papers, packages and other related materials in industries such as food, pharmaceuticals, medical devices, daily chemicals, photovoltaic electronics, etc. • It is an ideal offline or online configuration instrument for manufacturers in the packaging industry to test the barrier performance of packaging materials. Testing Principle The W416 2.0 Water Vapor Transmission Rate Tester adopts the infrared method principle: 1. Fix the pre-treated sample in the middle of the test chamber, dividing the chamber into a high-humidity chamber and a low-humidity chamber. 2. Compressed air flows through the high-humidity chamber, while dry nitrogen (carrier gas) flows through the low-humidity chamber at a constant flow rate. 3. Due to the humidity gradient, water vapor penetrates from the high-humidity chamber to the low-humidity chamber. 4. The water vapor passing through the sample is carried to the infrared sensor by the flowing dry nitrogen. 5. Parameters such as the sample’s water vapor transmission rate are derived from the electrical signal output by the sensor. Working Principle Diagram of Infrared Method Standards • ISO 15106-2 • ISO 21760-1 • ASTM F1249 • GB/T 26253 • JIS K7129-2 • Chinese Pharmacopoeia 2025 Edition <4010 Determination of Water Vapor Transmission Rate of Pharmaceutical Packaging Materials> • YBB 00092003 Technical Parameters Item Technical Parameter Test Range 0.002 ~ 100 g/(m²·24h) Repeatability The greater value between 0.005 or 2% Resolution 0.0001 g/(m²·24h) Temperature Control Range 15 ~ 45℃ Temperature Control Precision ±0.1℃ Humidity Control Range (5 ~ 90)%RH, 100%RH Humidity Control Precision ±1%RH Test Area 50.24 cm² Sample Size Φ100 mm Sample Thickness ≤ 3 mm Sample Quantity 6 pieces Carrier Gas 99.999% Nitrogen (provided by the user) Carrier Gas Pressure ≥ 0.1 MPa Carrier Gas Flow Rate 5 ~ 100 mL/min Pneumatic Pressure ≥ 0.3 MPa Dimension 1140mm × 600mm × 440mm Weight 55 kg Power 750 W Power Supply AC 220 V, 50 Hz Product Features • Patented Sensor Technology for Efficient and Accurate Testing - The high-precision infrared moisture sensor is jointly developed with top foreign technical teams, featuring ultra-high stability, ultra-low failure rate, high sensitivity, and a resolution of up to 0.0001 g/(m²·24h). - Equipped with a brand-new pneumatic air circuit control system, the automatic fixture locks the sample with one key, ensuring convenient operation and excellent sealing performance. • Full-Automatic Precision Temperature and Humidity Control - Temperature Control: The semiconductor cooling chip realizes bidirectional automatic temperature control with a precision of ±0.1℃. - Humidity Control: Adopts dual-airflow (dry and humid air) humidity control method for stable and high-precision humidity regulation, with an accuracy of ±1%RH. • Wide-Range Testing with High Applicability - The instrument is equipped with 6 independent test chambers, meeting high-throughput testing requirements with high efficiency. - Boasts a wide test range with a lower limit of 0.002 g/(m²·24h), suitable for testing various high, medium and low barrier materials. With customized accessories, it can also test the water vapor transmission rate of containers such as bottles, bags and bowls. • User-Friendly Operation with Real-Time Visual Curves - Supports fully automatic operation, including one-key testing, automatic judgment and automatic shutdown. - Real-time displays five sets of curves: transmission rate vs. time, temperature vs. time, humidity vs. time, flow rate vs. time and voltage vs. time, with preview and hide functions available for the curves. • Intelligent Operating System with Global Certification - Self-developed intelligent operating system with modular graphics, allowing flexible setting of test procedures and parameters for intuitive and convenient operation. - Designed in accordance with the *Annex to GMP <Computerized Systems>*, it has an audit trail function and multi-level user permission settings, meeting the data traceability requirements of the pharmaceutical industry. - Supports customized test report settings, multiple data output formats, electronic signatures and online submission of audit reports. • Professional Calibration Service for Accurate and Reliable Data - Our company holds the National Standard Substance Grading Certificate for water vapor transmission rate, approved and issued by the General Administration of Quality Supervision, Inspection and Quarantine of the People's Republic of China, with standard substance numbers (GBW(E)130543 / GBW(E)130544). - The instrument is calibrated and verified using self-developed national standard substances to ensure the accuracy, universality and authority of test data. • Intelligent Laboratory IoT Platform - The instrument can be connected to the IoT platform to realize network digital management. - Remote authorized login to the IoT platform enables functions such as managing test data and remote fault diagnosis. - Customers can download required instrument data, documents and operation videos on the platform independently.

Introduction The N560 2.0 Gas Transmission Rate Tester is a high-precision laboratory testing equipment integrating machinery, electronics and software. It is suitable for the gas barrier property test of plastic films, composite films, sheets, metal foils and other sheet materials, as well as the gas transmission rate test of packaging containers such as bottles, bags, cans and boxes made of plastics, rubber, paper and other multi-type materials.  

Product Brief The N600P Paper & Paperboard Air Permeability Tester is custom-developed to align with standards like GB/T 458-2008 and ISO 5636. It adopts the differential pressure method as its core testing principle, and innovatively integrates three industry-common testing approaches (Gurley, Schopper, and Bendtsen) into a single device.   This tester is applicable to air permeability detection of various paper and paperboard materials, and can measure key indicators including: material air permeability, air resistance, gas transmission rate, and total gas transmission volume. Testing Principle Gurley Method   Under a constant differential pressure of 1.23 kPa, measure the time required for 100 mL of gas to pass through the sample. Schopper Method   Select a suitable test duration under a constant differential pressure (1.00 kPa±0.01 kPa or 2.50±0.01 kPa), and calculate the gas flow rate through the sample by measuring the gas volume. Bendtsen Method   After clamping the sample for 5 seconds under a constant differential pressure of 1.47 kPa, test the gas flow rate through the surface of the sample. Executed Standards GB/T 458-2008, SJ/T 10171-2016, ISO 5636-5:2003, ISO 5636-2:1984, ISO 5636-3:2013, TAPPI T460 Technical Parameters   Item Technical Parameters Test Range 0.1~10 μm/(Pa·s) Resolution 0.001 μm/(Pa·s) Differential Pressure Range 0~5 kPa Pressure Resolution 0.001 kPa Test Area 6.42 cm² or 10.0 cm² Sample Size ＞50 mm×50 mm Instrument Dimensions (L×W×H) 450 mm×400 mm×300 mm Power 100 W Power Supply 110~250 VAC, 50~60 Hz

Product Brief The N600E Battery Separator Air Permeability Tester is designed and developed in accordance with standards such as GB/T 36363-2018. Adopting the differential pressure method as its testing principle, it is professionally used for testing the air permeability of battery separators, breathable films, and related polymer materials. Testing Principle In an environment with controlled temperature, humidity, and normal pressure, the tester measures the time required for 100 mL of air to pass through a 6.45 cm² separator under an applied pressure of 1.21 kPa. Executed Standards GB/T 36363-2018, ISO 5636-5:2003, TAPPI T460 Technical Parameters Item Technical Parameters Test Range 60~12000 sec/100mL Resolution 0.1 sec/100mL Pressure Range 0~5 kPa Pressure Resolution 0.001 kPa Test Area 6.45 cm² Sample Size ＞50 mm×50 mm Instrument Dimensions 450 mm×400 mm×300 mm Power 100 W Power Supply 110~250 VAC, 50~60 Hz Product Features • The instrument's differential pressure is adjustable within the range of 0~5 kPa, with a precision of 0.001 kPa, fully meeting the test pressure requirements of different methods;• Supports multi-unit display (s/100mL and μm/(Pa·s));• The test range can be customized according to different sample requirements;• Excellent airtightness;• Arbitrary pressure adjustment, fully automatic operation, and automatic measurement and calculation of results;• Equipped with a color touch screen, no external computer required, enabling real-time observation of sample air permeability;• Built-in micro-printer for real-time printing of test reports;• The upper computer software is designed in accordance with the new GMP Appendix "Computerized Systems", supporting functions such as hierarchical permission management, audit trail, and electronic signature (optional).

Product Brief The N600C Carbon Paper Air Permeability Rate Tester is designed and developed in accordance with GB/T 20042.7-2014. Adopting the differential pressure method as its testing principle, it is professionally used for measuring the air permeability rate of various types of carbon paper for proton exchange membrane fuel cells (PEMFC). Testing Principle Based on the differential pressure method, the sample is placed between two fixtures, forming a constant differential pressure on both sides of the sample. Driven by the differential pressure, gas flows from the high-pressure side through the sample to the low-pressure side. The air permeability rate of the carbon paper is calculated based on the transmission flow rate, sample thickness, test area, and test differential pressure. Executed Standards GB/T 20042.7-2014 Technical Parameters Item Technical Parameters Test Range 0~200,000 mL·mm/(cm²·h·mmHg)0~14,701 mL·mm/(cm²·hr·mmAq) Resolution 0.1 mL·mm/(cm²·h·mmHg)0.1 mL·mm/(cm²·hr·mmAq) Pressure Range 0~500 Pa (other ranges available upon request) Pressure Resolution 0.1 Pa Pressure Accuracy 0.1% FS (Full Scale) Flow Range 0~50 L/min (other ranges available upon request) Flow Resolution 1 mL/min Flow Accuracy 1% FS (Full Scale) Test Area 16 cm² Instrument Dimensions 410 mm×295 mm×365 mm Power 100 W Power Supply 110~250 VAC, 50~60 Hz Product Features • The instrument's differential pressure is adjustable within the range of 0~500 Pa, with an accuracy of 0.1% FS, fully meeting the test pressure requirements of different samples;• The test range can be customized according to different sample requirements;• Arbitrary pressure adjustment, fully automatic operation, and automatic measurement and calculation of results;• Equipped with a color touch screen, no external computer required;• Built-in micro-printer for real-time printing of test reports;• The upper computer software is designed in accordance with the new GMP Appendix "Computerized Systems", supporting functions such as hierarchical permission management, audit trail, and electronic signature (optional).  

Introduction The N530A 2.0 Gas Permeability Tester is designed and manufactured based on the differential pressure testing principle, in accordance with standards such as GB/T 1038 and ISO 2556. It adopts a high-precision pressure sensor and automatic pressure difference maintenance technology, ensuring high testing accuracy. It is suitable for testing the gas permeability of films, sheets, paper, packaging materials and related products in fields including food, pharmaceuticals, medical devices, daily chemicals, and photovoltaic electronics. It provides wide-range and high-efficiency gas permeability detection for high, medium, and low gas barrier materials.