Contaminant classification of poultry hyperspectral imagery using a spectral angle mapper algorithm

被引:117
作者
Park, B. [1 ]
Windham, W. R. [1 ]
Lawrence, K. C. [1 ]
Smith, D. P. [1 ]
机构
[1] USDA ARS, Richard B Russell Agr Res Ctr, Athens, GA 30605 USA
关键词
D O I
10.1016/j.biosystemseng.2006.11.012
中图分类号
S2 [农业工程];
学科分类号
0828 ;
摘要
Since hyperspectral imaging technique has been demonstrated to be a potential tool for poultry safety inspection, particularly faecal contamination, a hyperspectral image classification method was developed for identifying the type and source of faecal contaminants. Spectral angle mapper (SAM) supervised classification method for hyperspectral poultry imagery was performed for classifying faecal and ingesta contaminants on the surface of broiler carcasses. Spatially averaged spectra of three different faeces from the duodenum, caecum, colons, and ingesta of maize/soya bean diet were used for classification data. The SAM classifier using reflectance of hyperspectral data with 512 narrow bands from 400 to 900 rim was able to classify three different faeces and ingesta on the surface of poultry carcasses. Based on the comparison with ground truth region of interest, both classification accuracy and kappa coefficient, which quantifies the agreement of classification, increased when spectral angle increased. The overall mean accuracy and corresponding mean kappa coefficient to classify faecal and ingesta contaminants were 9013% (standard deviation of 5.40%) and 08841 (standard deviation of 00629) when a spectral angle of 0.3 radians was used as a threshold. Published by Elsevier Ltd on behalf of IAgrE.
引用
收藏
页码:323 / 333
页数:11
相关论文
共 34 条
[1]   Consequences of scattering for spectral imaging of turbid biologic tissue [J].
Arnoldussen, ME ;
Cohen, D ;
Bearman, GH ;
Grundfest, WS .
JOURNAL OF BIOMEDICAL OPTICS, 2000, 5 (03) :300-306
[2]  
Bostater CR, 1998, P SOC PHOTO-OPT INS, V3499, P277, DOI 10.1117/12.332760
[3]   Hybrid pattern recognition method using evolutionary computing techniques applied to the exploitation of hyperspectral imagery and medical spectral data [J].
Burman, JA .
IMAGE AND SIGNAL PROCESSING FOR REMOTE SENSING V, 1999, 3871 :348-357
[4]   Hyperspectral imaging for detection of scab in wheat [J].
Delwiche, SR ;
Kim, MS .
BIOLOGICAL QUALITY AND PRECISION AGRICULTURE II, 2000, 4203 :13-20
[5]   Hyperspectral imaging for dermal hemoglobin spectroscopy [J].
Dwyer, PJ ;
DiMarzio, CA .
SUBSURFACE SENSORS AND APPLICATIONS, 1999, 3752 :72-82
[6]   Hyperspectral image sensor for weed selective spraying [J].
Feyaerts, F ;
Pollet, P ;
Van Gool, L ;
Wambacq, P .
ADVANCED PHOTONIC SENSORS AND APPLICATIONS, 1999, 3897 :193-203
[7]   Characteristics and capabilities of the Hyperspectral Imaging Microscope [J].
Huebschman, ML ;
Schultz, RA ;
Garner, HR .
IEEE ENGINEERING IN MEDICINE AND BIOLOGY MAGAZINE, 2002, 21 (04) :104-117
[8]   Hyperspectral reflectance measurements for estimating eco-physiological status of plants [J].
Inoue, Y ;
Penuelus, J ;
Nouevllon, Y ;
Moran, MS .
HYPERSPECTRAL REMOTE SENSING OF THE LAND AND ATMOSPHERE, 2001, 4151 :153-163
[9]  
Kim MS, 2001, T ASAE, V44, P721
[10]   THE SPECTRAL IMAGE-PROCESSING SYSTEM (SIPS) - INTERACTIVE VISUALIZATION AND ANALYSIS OF IMAGING SPECTROMETER DATA [J].
KRUSE, FA ;
LEFKOFF, AB ;
BOARDMAN, JW ;
HEIDEBRECHT, KB ;
SHAPIRO, AT ;
BARLOON, PJ ;
GOETZ, AFH .
REMOTE SENSING OF ENVIRONMENT, 1993, 44 (2-3) :145-163