Nondestructive sensing technologies using micro optical elements for applications in the NIR-MIR spectral regions

被引:2
作者
Otto, T
Saupe, R
Bruch, R
Fritzsch, U
Stock, V
Gessner, T
Afanasyeva, N
机构
[1] Department of Physics University of Nevada, Reno, NV
[2] COLOUR CONTROL Farbmesstechnik GmbH, Chemnitz
来源
SUBSURFACE AND SURFACE SENSING TECHNOLOGIES AND APPLICATIONS III | 2001年 / 4491卷
关键词
NIR-MIR analyzer; nondestructive sensing; microtechnology;
D O I
10.1117/12.450166
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
The field of microtechnology is an important industrial and scientific resource for the 21st century. There is a great interest in spectroscopic sensors in the near and middle infrared (NIR-MIR) wavelength regions (1 - 2.5 mum; 2.5 - 4.5 mum; 4 - 6 gm). The potential for cheap and small devices for nondestructive, remote sensing techniques at a molecular level has stimulated the design and development of more compact analyzer systems. Therefore we will try to build analyzers using micro optical components such as micromirrors and embossed micro gratings optimized for the above mentioned spectral ranges. Potentially, infrared sensors can be used for rapid nondestructive diagnostics of surfaces, liquids, gases, polymers and complex biological systems including proteins, blood, cells and cellular debris as well as body tissue. Furthermore, NIR-MIR microsensing spectroscopy will be utilized to monitor the chemical composition of petrochemical products like gasoline and diesel. In addition, miniature analyzers will be used for rapid measuring of food, in particular oil, starch and meat. In this paper we will present an overview of several new approaches for subsurface and surface sensing technologies based on the integration of optical micro devices, the most promising sensors for biomedical, environmental and industrial applications, data processing and evaluation algorithms for classification of the results. Both scientific and industrial applications will be discussed.
引用
收藏
页码:234 / 242
页数:9
相关论文
共 15 条
[1]  
Afanasyera N., 2000, SUBSURFACE SENSING T, V1, P45
[2]   NEAR-INFRARED REFLECTANCE ANALYSIS OF CARBONATE CONCENTRATION IN SOILS [J].
BENDOR, E ;
BANIN, A .
APPLIED SPECTROSCOPY, 1990, 44 (06) :1064-1069
[3]   NEAR-INFRARED SPECTROSCOPY AS AN ALTERNATIVE TO BIOLOGICAL TESTING FOR QUALITY-CONTROL OF HYALURONAN - COMPARISON OF DATA PREPROCESSING METHODS FOR CLASSIFICATION [J].
CARLSSON, AE ;
JANNE, KLR .
APPLIED SPECTROSCOPY, 1995, 49 (07) :1037-1040
[4]  
Davis S. P., 2001, Fourier Transform Spectrometry
[5]  
DOTZEL W, 1997, 1997 INT C SOL STAT, V1, P81
[6]  
FABIAN H, 1999, APPL SPECTROSC, V9, P1513
[7]   Hydrogen bonding in ethyl carbamate studied by IR spectroscopy [J].
Furer, VL .
JOURNAL OF MOLECULAR STRUCTURE, 1998, 449 (01) :53-59
[8]   Detection of the dipicolinic acid biomarker in Bacillus spores using Curie-point pyrolysis mass spectrometry and fourier transform infrared spectroscopy [J].
Goodacre, R ;
Shann, B ;
Gilbert, RJ ;
Timmins, ÉM ;
McGovern, AC ;
Alsberg, BK ;
Kell, DB ;
Logan, NA .
ANALYTICAL CHEMISTRY, 2000, 72 (01) :119-127
[9]  
GOTTWALD W, 1997, IR SPECTROSKOPIE ANW
[10]   Comparative investigation of the macromolecular composition of mycelia forms Thielavia terrestris by infrared spectroscopy [J].
Grube, M ;
Zagreba, E ;
Gromozova, E ;
Fomina, M .
VIBRATIONAL SPECTROSCOPY, 1999, 19 (02) :301-306