光谱系统
HARPIA 综合光谱系统在紧凑的空间内可以完成多种复杂的时间分辨光谱的测量。它提供直观的用户体验和方便的日常维护，满足当今科学应用的需求。
HARPIA-TA 是一个瞬态吸收光谱系统。可根据特定测量需求选配定制选项和扩展模块来定制 HARPIA 系统。尤其是它可以使用时间相关单光子计数和荧光上转换 (HARPIA-TF) 、第三光束传输 (HARPIA-TB) 和显微镜 (HARPIA-MM) 模块进行扩展。HARPIA 的设计使其在测量模式之间轻松切换，并配有专用数据采集和分析软件。每个模块都包含在一个整体腔体内，确保其出色的光学稳定性和最小的光程长度。
HARPIA-TG 是一种新型瞬态光栅光谱系统，专门用于测量扩散系数和载流子寿命。全自动计算机控制的系统可以在几分钟内完成测量。
| 产品系列1) | 具体型号1) | 应用2) |
|---|---|---|
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– | 块体中的瞬态吸收和反射 |
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显微镜中的瞬态吸收和反射 | |
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多脉冲瞬态吸收和反射 | |
| 飞秒受激拉曼散射（FSRS） | ||
| Z-扫描 | ||
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克尔门/荧光上转换 | |
| 皮秒至微秒的荧光 TCSPC | ||
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– | 瞬态光栅光谱学 |
| 单波长瞬态吸收 |
- 详情见 HARPIA，或联系 sales@lightcon.com。
- 更多信息见 超快光谱学应用。
- Excellent performance at a high repetition rate
- Measurement range from UV to MIR
- Market-leading sensitivity
- Modules for time-resolved, and multi-pulse experiments
- High-level automation in a compact footprint
- Reflection mode
- 几分钟内的载流子扩散系数！
- 无创测量技术
- 全自动计算机控制
- 光栅周期的连续设置
- 灵敏度低至 µJ/cm² 激励水平
- 先进的测量和分析软件
- 光致发光（PL）测量选项
HARPIA 光谱系统在高重频和低单脉冲能量激发条件下依然有出色的信噪比。下图比较了在相同采集时间下，钛宝石激光器以 1 kHz 的频率工作和 PHAROS 激光器以 64 kHz 的频率工作时获得的差分吸收光谱的信噪比 (SNR)。
Effect of intramolecular charge transfer processes on amplified spontaneous emission of D–π–A type aggregation-enhanced emission molecules
Y. Li, P. Han, X. Zhang, J. Zhou, X. Qiao, D. Yang, A. Qin, B. Z. Tang, J. Peng, and D. Ma, Journal of Materials Chemistry C 9 (11), 3284-3291 (2023).
Improved Crystallization of High-Solubility Non-Fullerene Electron Acceptors for Enhanced Photoelectric Conversion Efficiency: Effect of the Terminal Group
G. Ran, X. Shan, H. Lu, Y. Liu, Z. Bo, and W. Zhang, The Journal of Physical Chemistry C (2023).
Intramolecular and Intermolecular Interaction Switching in the Aggregates of Perylene Diimide Trimer: Effect of Hydrophobicity
P. Su, G. Ran, H. Wang, J. Yue, Q. Kong, Z. Bo, and W. Zhang, Molecules 7 (28), 3003 (2023).
Packing-induced selectivity switching in molecular nanoparticle photocatalysts for hydrogen and hydrogen peroxide production
H. Yang, C. Li, T. Liu, T. Fellowes, S. Y. Chong, L. Catalano, M. Bahri, W. Zhang, Y. Xu, L. Liu et al., Nature Nanotechnology 3 (18), 307-315 (2023).
Solution-grown BiI/BiI3 van der Waals heterostructures for sensitive X-ray detection
R. Zhuang, S. Cai, Z. Mei, H. Liang, N. Zhao, H. Mu, W. Yu, Y. Jiang, J. Yuan, S. Lau et al., Nature Communications 1 (14) (2023).
Atomic structure of a seed-sized gold nanoprism
Y. Song, Y. Li, M. Zhou, H. Li, T. Xu, C. Zhou, F. Ke, D. Huo, Y. Wan, J. Jie et al., Nature Communications 1 (13) (2022).
Charge Photogeneration and Recombination in Fluorine-Substituted Polymer Solar Cells
R. Hu, Y. Liu, J. Peng, J. Jiang, M. Qing, X. He, M. Huo, and W. Zhang, Frontiers in Chemistry 10 (2022).
Cobalt(III) Carbene Complex with an Electronic Excited-State Structure Similar to Cyclometalated Iridium(III) Compounds
N. Sinha, B. Pfund, C. Wegeberg, A. Prescimone, and O. S. Wenger, Journal of the American Chemical Society 22 (144), 9859-9873 (2022).
Completely Anisotropic Ultrafast Optical Switching and Direction-Dependent Photocarrier Diffusion in Layered ZrTe 5
S. B. Seo, S. Nah, M. Sajjad, J. Song, N. Singh, S. H. Suk, H. Baik, S. Kim, G. Kim, J. Kim et al., Advanced Optical Materials 3 (11), 2201544 (2022).
Dopamine Photochemical Behaviour under UV Irradiation
A. Falamaş, A. Petran, A. Hada, and A. Bende, International Journal of Molecular Sciences 10 (23), 5483 (2022).