工业气体分析使用紧凑型紫外激光器

A. Kramer, M. Lenner, Deran Maas, T. Smeeton, K. Welna, Edward Boardman, V. Berryman-Bousquet
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引用次数: 2

摘要

波长在200nm到240nm之间的紫外光是光谱气体分析的重要研究对象。特别是,在工业应用中,基于该光谱范围的光学气体分析仪对于燃烧气体和天然气分析很有希望,但需要合适的坚固、紧凑和低成本光源。我们展示了一种使用紧凑的固态激光模块的气体分析仪,该模块发射波长接近219nm,与传统光源相比具有显着优势。本文概述了激光器模块的主要特性,并描述了将激光器集成到气体分析仪样机中的过程。在一个简单的吸收装置中,以硫化氢为分析物,我们证明了0.02 ppm•m (3 σ, 50 s平均,1 Hz采样率)的检测限。该激光器具有占地面积小、供电电压低和功耗低的特性,是集成到未来强大、低成本的工业产品中的关键优势。
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Industrial gas analytics using a compact ultraviolet laser
Ultraviolet light in the wavelength range between 200 nm and 240 nm is of great interest for spectroscopic gas analytics. Particularly, for industrial applications, optical gas analyzers based on this spectral range are promising for combustion gas and natural gas analytics but require availability of suitable robust, compact and low-cost light sources. We have demonstrated a gas analyzer using a compact solid-state laser module which emits wavelengths near 219 nm and which offers significant advantages compared with conventional light sources. The key characteristics of the laser module are outlined in the paper and the integration of the laser into a gas analyzer prototype is described. In a simple absorption setup, using the example of hydrogen sulfide as analyte, we demonstrate a detection limit of 0.02 ppm•m (3 σ, 50 s average, 1 Hz sampling rate). The properties of the laser having a small footprint, low supply voltage, and low power consumption are key advantages for the integration into future robust, low-cost, industrial products.
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