DicifferX WAXS Edition
Wide-angle X-ray scattering (WAXS) system
Breakthrough speed and versatility for polymer structure analysis
- Next-generation WAXS system equipped with a high-brilliance X-ray source
- Structural information captured non-destructively in just a few seconds of exposure
- Time-resolved in-situ measurements for heating, stretching, and humidity conditions
DicifferX WAXS Edition redefines what’s possible for in-house WAXS measurements.
By delivering structural insights in seconds, it accelerates decision-making and drives rapid innovation. Studies once requiring long measurement times or external facilities can now be performed directly in your own laboratory—streamlining workflows and empowering faster materials development.
DicifferX WAXS Edition Overview
High-intensity micro X-ray beam for unmatched speed
By combining a high-intensity rotating anode X-ray generator with a high-precision multilayer focusing mirror, the system achieves an X-ray intensity of 10⁹ cps with a 200 μm beam width, directing a high-brilliance beam onto the sample.
The high-brilliance X-ray beam not only shortens measurement time significantly but also enhances time resolution. This enables high-speed time-resolved measurements that capture structural changes over time, such as during isothermal stretching of film materials.
Goniometer-free design for a spacious sample area and flexible attachments
The sample space, measuring 420 mm (H) × 190 mm (W) × 400 mm (D) with a load capacity of 5 kg, provides ample room for a wide variety of environmental stages and attachments. Linkam stretching and heating/cooling stages can also be controlled directly through Rigaku’s software, ensuring flexible adaptation to diverse sample environments and measurement needs.
Extended measurement capabilities for 2D data over a wide 2θ range (up to 360°)
The distance between the sample and the detector can be adjusted within a range of 40 to 140 mm. In two-dimensional flat-plate measurements, the system also supports coverage over a full 360° in the β direction.
Unique polymer structure analysis software
Rigaku’s proprietary software, specialized for polymer structure analysis, enables quantitative analysis of key information related to the properties of polymer materials—such as crystal structures and orientation distributions—using two-dimensional data, and provides clear visual representations of the results.
DicifferX WAXS Edition Features
DicifferX WAXS Edition Specifications
| Technique | Wide-angle X-ray scattering (WAXS) | |
|---|---|---|
| Applications | Wide-angle X-ray scattering, GI-WAXS, crystallinity evaluation, orientation analysis, in-situ/operando measurements | |
| Technology | Optics optimized for two-dimensional wide-angle X-ray scattering measurements | |
| Main components | 1.2 kW rotating anode X-ray generator (MicroMax-007), VariMax mirror, high-energy resolution 2D hybrid pixel array detector (HyPix) | |
| Options | Sample attachments, cells, stages, others | |
| Control (PC) | External PC, MS Windows OS, DicifferX Guidance control software | |
| Dimensions (main unit) |
1,450 (W) x 1,850 (H) x 1,100 (D) | |
| Weight (main unit) |
Approx. 750 kg | |
| Power supply | Three-phase 200 V, 50/60 Hz, 20 A | |
DicifferX WAXS Edition Options
The following accessories are available for this product:
DicifferX WAXS Edition Resources
Polymer Application eBook
| Download |
Publications
Some references on this page may use former product or model names. In the research papers, NANOPIX-WE and T-WAXS are identical in function and performance to the DicifferX WAXS Edition (outer design differs only). NANOPIX-SP is the previous model, with equivalent measurement functions and performance.
Rigaku Journal, 38(1), 2022:Wide-Angle X-ray Scattering Instrument NANOPIX-WE
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The crescent cross-section and dichotomous chitin structure make the proboscis of butterflies and moths a hydraulic spring (2025)
Taiyo Yoshioka, Tatiana Stepanova, Artis Brasovs, Vincent Y. Blouin, Charles E. Beard, Peter H. Adler, Konstantin G. Kornev; Acta Biomaterialia, 206, 160–172
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Enhanced superelasticity and notable elastocaloric effect of Cu₇₁Al₁₇.₅Mn₁₁.₅ shape memory alloys by laser-based powder bed fusion (2025)
Xiang Li, Zeming Fan, Qijie Zhai, Gang Wang, Xiang Lu, Hanyang Qian, Rui Cai, Daqiang Jiang, Jian Liu; Additive Manufacturing Letters, 13, 100281.
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Membranes of Amphiphilic Polyamide 1012 Prepared via Mixed ‘Non-solvents’ Evaporation Induced Phase Separation (2025)
Xiang Liu, Jie Qiu, Yu-Ting Gao, Shuo Wang, Joachim Loos, Du-Jin Wang, Xia Dong & Tao Wen; Chinese Journal of Polymer Science, 43, 153–161.
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Possible Superconductivity Transition in Nitrogen-Doped Lutetium Hydride Observed at Megabar Pressure (2025)
Xingbin Zhao, Yu Huang, Shuailing Ma, Hao Song, Yanwei Cao, Hao Jiang, Yanping Huang, and Tian Cui; Advanced Science, 12, 2409092.
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Achieving near zero-hysteretic superelasticity in a Ni₄₃Fe₁₈Ga₂₇Co₁₂ single-crystalline microwire via Lüders-like phase transformation (2024)
Haiyang Chen, Hailong Sun, Yang Ren, Jinghao Yang, Chao Song, Daoyong Cong, Shilei Li, Yan-Dong Wang Scripta Materialia, 242, 115932.
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High-pressure band-gap engineering and structural properties of van der Waals BiOCl nanosheets (2024)
Yaqian Dan, Meiyan Ye, Weiwei Dong, Yihang Yao, Min Lian, Mingyang Du, Shuailing Ma, Xiaodong Li and Tian Cui RSC Adv., 14, 39429–39435.
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A study of polylactic Acid/K₂SiF₆:Mn⁴⁺ composite luminescent materials: design, preparation, and properties (2024)
Xin Huang and Lei Zhang; Mater. Res. Express, 11, 015303.
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Microstructure homogenization and strength–ductility synergy improvement of the hybrid additive manufactured dual-phase titanium alloy by sub-critical annealing (2024)
Hongwei Gao, Yanyan Zhu, Jiawei Wang, Dongdong Zheng, Bo Zhang & Xu Cheng; Virtual and Physical Prototyping, 19, 2382168.
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Enhancing the strain-hardening rate and uniform tensile ductility of lightweight refractory high-entropy alloys by tailoring multi-scale heterostructure strategy (2024)
Yansong Zhang, Huaming Wang, Junwei Yang, Yanyan Zhu*, Jia Li, Zhuo Li, Bing Su, Bingsen Liu, Chunjie Shen; Acta Materialia, 1–16.
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Elinvar effect in Ti₅₀₋ₓNi₄₁Co₉Nbₓ shape memory alloys (2023)
Yuru Zha, Daqiang Jiang, Yinong Liu, Genfa Kang, Hui Zhang, Xiaohua Jiang, Lishan Cui; Journal of Materials Research and Technology, 23, 1761-1766.
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Fabrication of Biodegradable Poly(Lactic Acid) Composites with High Toughness via In Situ Fibrillation Method and Facile Annealing Process (2023)
Jianxiong Zhao, Hezhi He, and Zhiwen Zhu; Ind. Eng. Chem. Res., 1-12.
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Unique Material Properties of Bombyx mori Silk Fiber Incorporated with 3-Azidotyrosine (2023)
Hidetoshi Teramoto, Katsura Kojima, Masatoshi Iga, and Taiyo Yoshioka;Biomacromolecules, 1-9.
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Copolymerization induced emission of poly[(methylenelactide)-co-(2-vinylpyridine)] (2022)
Xinyu Li, Mengmeng Xu, Rongchun Zhang, Youqing Yu, Yuanyuan Pei, Qianqian Yu, Kunkun Liu, Yiliu Liu, Linge Wang and Tao Wen; © The Royal Society of Chemistry 2022.
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Selective Laser Melting of 60NiTi Alloy with Superior Wear Resistance (2022)
Fangmin Guo, Hui Shen, Zhiwei Xiong, Ying Yang, Xin Tong, Yanbao Guo and Shijie Hao; Metals 2022, 12, 620.
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Unexpected Emission of Poly[(methylenelactide)-co-(2-vinylpyridine)] from Single-chain Luminogen (2022)
Xinyu Li, Mengmeng Xu, Rongchun Zhang, Youqing Yu, Yuanyuan Pei, Qianqian Yu, Kunkun Liu, Yiliu Liu, LinGe Wang, Tao WenJournal of Materials Chemistry C, 10, 9081-9091.
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Enhancing Tensile Strength and Toughness via Moderate Orientation of Amorphous Molecular Chains in Biobased Biodegradable Poly(lactic acid) (2022)
Jiqian Li, Mohong Xu, Hezhi He, Qi Gao, Yiming Zhang, He Zhang, Qun Gu, Bin Xue, and Zhiwen Zhu; ACS Appl. Polym. Mater., 1-10.
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Spontaneous helielectric nematic liquid crystals: Electric analog to helimagnets (2021)
Xiuhu Zhao, Junchen Zhou, Jinxing Li, Junichi Kougo, Zhe Wan, Mingjun Huang, Satoshi Aya PNAS, 118, e2111101118.
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Uranyl Peroxide Nanocage Assemblies for Solid-State Electrolytes (2021)
Jie Hu, Linkun Cai, Huihui Wang, Kun Chen, and Panchao Yin; ACS Appl. Nano Mater., 1-14.
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Uniform hybrid nanoribbons from unidirectional inclusion crystallization controlled by size-amphiphilic block copolymers (2020)
Tao Wen, * Zhao Zheng, Lu Qiu, Jun Yuan and Panchao Yin; J. Mater. Chem. A, 1-11.
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Inclusion Crystallization of Silicotungstic Acid and Poly(ethylene oxide) and Its Impact on Proton Conductivities (2020)
Tao Wen, Lu Qiu, Zhao Zheng, Yuqing Gong, Jun Yuan, Yingying Wang, Mingjun Huang, and Panchao Yin; Macromolecules, 1-13.
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DicifferX WAXS Edition
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