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Address
No. 96, Huilongguan Life Science Park, Changping District, Beijing, China
Beijing Haixinrui Technology Co., Ltd
No. 96, Huilongguan Life Science Park, Changping District, Beijing, China
Laser particle size analyzer
1: Product principle

HL2020-CDry wet dual-use laser particle size analyzerAdopting the internationally recognized Mie scattering principle. The high-density detector and seamless full-scale testing method ensure the accuracy and repeatability of the test results. Its wet circulation dispersion system ensures no particle deposition during particle testing and no accumulation of waste liquid after drainage, ensuring the accuracy of the second test and making the test results more authentic and reliable; The dry dispersion method adopts a linear jet dispersion method, where the sample is dispersed by high-pressure gas and flies vertically backwards to avoid secondary clustering of the tested particles. At the same time, a pipeline residue free design is adopted to ensure the accuracy of testing different samples. The HL2020-C's advantages are highlighted by its carefully designed optical path automatic calibration system, dry wet one key switching system, and dry computer remote control feeding system.

a: Schematic diagram of wet process structure

b: Schematic diagram of dry process structure
2: Product performance characteristics

⑴ Optical path design: Adopting converging light Fourier transform testing technology to ensure maximum range at the shortest focal length, effectively improving the resolution of the instrument.
⑵ High density detection unit: The HL2020-C wet dry dual-use laser particle size analyzer has the ability to test small particles and has seamless testing capabilities across the entire range.
⑶ Misoperation protection function: The instrument has a non response function to operator's incorrect instructions, which avoids damage to the instrument caused by misoperation and greatly improves the stability of instrument testing results.
⑷ Large aperture lens: Large aperture Fourier transform lens, more effective in achieving Fourier transform of optical signals, more accurate and efficient.
⑸ Laser: a. Imported high-power fiber output semiconductor laser with high stability and long lifespan is used.
b、 The laser has the function of self checking power changes and self adjusting, maintaining a constant power output of the laser.
⑹ Split design: The optical path is more stable and effectively avoids the impact of dispersed device vibration.
⑺ Automatic centering: Using a combination of mechanical and optical center technology, the optical path is automatically adjusted and positioned more accurately.
Dustproof and shockproof design: The overall sealing design has greatly improved the service life of internal components.
Optical Platform: Adopting an all aluminum alloy optical platform, it is stable and reliable for a long time.
3: Technical improvement
One lens design: The newly designed optical path adopts backward lens acquisition technology, achieving wide-angle blind spot detection.
Two dry direct spray design: Direct spray design is adopted between the dispersion system and the instrument, eliminating the need for hose connections. Effectively avoiding the adhesion of the hose to the test sample.
Three free bubble design: prevents bubbles from entering the test sample window during the entire testing process, avoiding bubble interference.
Four sample residue free design: The instrument pipeline and drainage structure have been optimized to avoid any impact on the next test data;
Five remote control feeding: Testers can remotely control the feeding speed, greatly reducing the labor intensity of testers.
Six sample window quick change device: making sample window replacement more convenient and efficient.
Seven Laser Intelligent Management System: Incorporating a laser intelligent management system to monitor the working status of instruments in real-time, increasing the service life of the laser.
Eight automatic filling system: Added an automatic dispersant system to make the results more accurate.
4: Basic parameters
| category | basic style | mid-range model | High allocation |
| Specification Model | HL2020-A | HL2020-C | HL2020-B |
| Measuring principle | Full range laser diffraction | ||
| execution standard | ISO 13320-2020; GB/T19077-2024 | ||
| test scope | Wet process 0.01 μ m-1280um 干法0.1 μm -1280um | Wet process 0.01 μ m-2000um 干法0.1 μm -2000um | Wet process 0.01 μ m-2800um 干法0.1 μm -2800um |
| accuracy | Dv50 is better than ± 0.5% (NIST traceable standard sample) | ||
| repetitiveness | Dv50 is better than ± 0.5% (NIST traceable standard sample) | ||
| Collecting motherboards | Ultra high speed acquisition motherboard | ||
| concentration range | 90%<Light blocking degree>3% (optical concentration) | ||
| China-oriented system | Mechanical center+optical center dual positioning fully automatic centering system | ||
| ambient temperature | 0°C-45°C | ||
| ambient humidity | 10% -85% relative humidity (no condensation) | ||
| Power requirements | 220V(±20V),50Hz–60Hz | ||
| Laser management | LIMS Laser Intelligent Management System | ||
5: Software functions
Analysis mode: including free distribution, R-R distribution, lognormal distribution, and hierarchical statistical mode, to meet the different requirements of different industries for the statistical methods of sample size.
Statistical methods: volume distribution and quantity distribution to meet different statistical methods for particle size distribution in different industries.
Statistical comparison: Multiple test results can be statistically compared and analyzed, which can significantly compare the differences in test results between different batches of samples, samples before and after processing, and different time periods. This has practical significance for industrial raw material quality control.
● DIY display template: Users can customize the data to be displayed, calculate the percentage based on particle size, calculate the particle size based on percentage, or calculate the percentage based on particle size range to meet the characterization methods of particle size testing in different industries. Distance, consistency, interval accumulation, and so on.
Test report: The test report can be exported in various forms such as Word, Excel, images (Bmp), and text (Text) to meet the needs of viewing test reports in different situations and citing test results in scientific research articles.
● Multi language support: Supports both Chinese and English language interfaces, and can also embed interfaces in other languages according to user requirements.
Intelligent operation mode: No human intervention or interference from human factors. You only need to follow the prompts to add the test sample, and the repeatability of the test results is better.
Test speed:<1min/time (excluding sample dispersion time).
6: Application Fields
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| nanomaterials | Used to study the influence of particle size on material properties of metal oxides, metal powders, and ceramic materials. |
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| Biomedicine | Analyze proteins DNA、RNA、 The granularity of viruses and various antigen antibodies. |
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| fine chemicals | Used to search for the particle size distribution of catalysts to reduce chemical reaction temperature and increase reaction rate. |
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| paint and coating | It is used to measure the particle size of paint, coating, silica gel, polymer latex, pigment, ink, water/oil lotion, toner, cosmetics and other materials. |
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| Food and Drug | Coating nanoparticles on the surface of drugs can slow down their release and make them into targeted drugs, which can be used to measure the particle size of the coating material in order to better exert the therapeutic effect of drugs. |
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| aerospace | Adding metal powder to rocket solid propellants can significantly improve the combustion performance of the propellant and can be used to study the particle size distribution of metal powder. |
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| National Defense Science and Technology | Refractory materials increase the efficiency of converting electromagnetic energy into thermal energy, thereby making electromagnetic wave absorbing materials and improving their absorption performance of electromagnetic waves. Materials with different particle sizes have different optical properties and can be used to study the performance of absorbing materials. |
8: Test report

9: Some typical customers
| serial number | User List | Specification Model | Year of Purchase |
| 1 | Tsinghua University | TW180-C | 2021 |
| 2 | Hainan University | HL2020-C | 2021 |
| 3 | Southern University of Science and Technology | HL6100-C | 2021 |
| 4 | Quanzhou Meteorological Bureau, Fujian Province | TW180-C | 2022 |
| 5 | Jiangsu Xiuqiang Glass Craft Co., Ltd | HL5100 | 2022 |
| 6 | Sichuan Mabian Longtai Phosphorus Power Co., Ltd | HL5100 | 2022 |
| 7 | Sichuan Xingtai Pule Medical Technology Co., Ltd | HL6100-C | 2022 |
| 8 | Shandong Agricultural University | HL3100 | 2023 |
| 9 | Jiangxi University of Science and Technology | HL2020-B | 2023 |
| 10 | Beijing Lepu Medical Equipment Co., Ltd | HL6100-C | 2023 |
| 11 | North China University of Technology | HL2020-L | 2023 |
| 12 | Wuhan Tianna Technology Co., Ltd | HL5500 | 2024 |
| 13 | Hefei University | HL3100 | 2024 |
| 14 | Ningde Times New Energy Technology Co., Ltd | TW180-A | 2024 |