Detection of hypercholesterolemia using hyperspectral imaging of human skin

被引:2
|
作者
Milanic, Matija [1 ]
Bjorgan, Asgeir [1 ]
Larsson, Marcus [2 ]
Stromberg, Tomas [2 ]
Randeberga, Lise Lyngsnes [1 ]
机构
[1] Norwegian Univ Sci & Technol, Dept Elect & Telecommun, N-7034 Trondheim, Norway
[2] Linkoping Univ, Dept Biomed Engn, Linkoping, Sweden
关键词
Monte Carlo; hyperspectral imaging; hypercholesterolemia; light-tissue interaction; Minimum Noise Fraction transformation; SCATTERING;
D O I
10.1117/12.2183880
中图分类号
R318 [生物医学工程];
学科分类号
0831 ;
摘要
Hypercholesterolemia is characterized by high blood levels of cholesterol and is associated with increased risk of atherosclerosis and cardiovascular disease. Xanthelasma is a subcutaneous lesion appearing in the skin around the eyes. Xanthelasma is related to hypercholesterolemia. Identifying micro-xanthelasma can thereforeprovide a mean for early detection of hypercholesterolemia and prevent onset and progress of disease. The goal of this study was to investigate spectral and spatial characteristics of hypercholesterolemia in facial skin. Optical techniques like hyperspectral imaging (HSI) might be a suitable tool for such characterization as it simultaneously provides high resolution spatial and spectral information. In this study a 3D Monte Carlo model of lipid inclusions in human skin was developed to create hyperspectral images in the spectral range 400-1090 nm. Four lesions with diameters 0.12-1.0 mm were simulated for three different skin types. The simulations were analyzed using three algorithms: the Tissue Indices (TI), the two layer Diffusion Approximation (DA), and the Minimum Noise Fraction transform (MNF). The simulated lesions were detected by all methods, but the best performance was obtained by the MNF algorithm. The results were verified using data from 11 volunteers with known cholesterol levels. The face of the volunteers was imaged by a LCTF system (400-720 nm), and the images were analyzed using the previously mentioned algorithms. The identified features were then compared to the known cholesterol levels of the subjects. Significant correlation was obtained for the MNF algorithm only. This study demonstrates that HSI can be a promising, rapid modality for detection of hypercholesterolemia.
引用
收藏
页数:11
相关论文
共 50 条
  • [41] Wind turbine ice detection using hyperspectral imaging
    Rizk, Patrick
    Younes, Rafic
    Ilinca, Adrian
    Khoder, Jihan
    REMOTE SENSING APPLICATIONS-SOCIETY AND ENVIRONMENT, 2022, 26
  • [42] Raspberry plant stress detection using hyperspectral imaging
    Williams, Dominic
    Karley, Alison
    Britten, Avril
    McCallum, Susan
    Graham, Julie
    PLANT DIRECT, 2023, 7 (03)
  • [43] Detection of Camouflaged Targets using Hyperspectral Imaging Technology
    Yang Jia
    Hua Wenshen
    Ma Zuohong
    Zhang Yue
    INTERNATIONAL SYMPOSIUM ON PHOTOELECTRONIC DETECTION AND IMAGING 2013: IMAGING SPECTROMETER TECHNOLOGIES AND APPLICATIONS, 2013, 8910
  • [44] Using Hyperspectral Images for Skin Defect Detection of Star Apple
    Nguyen, Ngo Minh Tri
    Liou, Nai-Shang
    Pham, Quoc Thien
    Chou, Hau-Ping
    Journal of Taiwan Agricultural Engineering, 2023, 69 (04): : 62 - 73
  • [45] HYPERSPECTRAL IMAGING FOR DETECTION OF ACUTE AND CHRONIC OXYGENATION AND PERFUSION CHANGES IN IRRADIATED SKIN
    Chin, M. S.
    Freniere, B. B.
    Lo, Y-C.
    Saleeby, J. H.
    Ignotz, R. A.
    Lalikos, J. F.
    Fitzgerald, T. J.
    RADIOTHERAPY AND ONCOLOGY, 2012, 102 : S118 - S119
  • [46] Hyperspectral Imaging for Skin Feature Detection: Advances in Markerless Tracking for Spine Surgery
    Manni, Francesca
    van der Sommen, Fons
    Zinger, Svitlana
    Shan, Caifeng
    Holthuizen, Ronald
    Lai, Marco
    Bustrom, Gustav
    Hoveling, Richelle J. M.
    Edstrom, Erik
    Elmi-Terander, Adrian
    de With, Peter H. N.
    APPLIED SCIENCES-BASEL, 2020, 10 (12):
  • [47] Hyperspectral characterization of fluorophore diffusion in human skin using an sCMOS based hyperspectral camera
    Hernandez-Palacios, J.
    Haug, I. J.
    Grimstad, O.
    Randeberg, L. L.
    CLINICAL AND BIOMEDICAL SPECTROSCOPY AND IMAGING II, 2011, 8087
  • [48] HYPERSPECTRAL IMAGING FOR SKIN RECOGNITION AND BIOMETRICS
    Huynh, Cong Phuoc
    Robles-Kelly, Antonio
    2010 IEEE INTERNATIONAL CONFERENCE ON IMAGE PROCESSING, 2010, : 2325 - 2328
  • [49] Discrimination of human and animal bloodstains using hyperspectral imaging
    Cooney, Gary Sean
    Koehler, Hannes
    Chalopin, Claire
    Babian, Carsten
    FORENSIC SCIENCE MEDICINE AND PATHOLOGY, 2024, 20 (02) : 490 - 499
  • [50] Hyperspectral imaging of skin and lung cancers
    Zherdeva, Larisa A.
    Bratchenko, Ivan A.
    Alonova, Marina V.
    Myakinin, Oleg O.
    Artemyev, Dmitry N.
    Moryatov, Alexander A.
    Kozlov, Sergey V.
    Zakharov, Valery P.
    BIOPHOTONICS: PHOTONIC SOLUTIONS FOR BETTER HEALTH CARE V, 2016, 9887