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Yi Wang, D. Xing, Ya-guang Zeng, Qun Chen (2004)
Photoacoustic imaging with deconvolution algorithm.Physics in medicine and biology, 49 14
S. Wray, M. Cope, D. Delpy, J. Wyatt, E. Reynolds (1988)
Characterization of the near infrared absorption spectra of cytochrome aa3 and haemoglobin for the non-invasive monitoring of cerebral oxygenation.Biochimica et biophysica acta, 933 1
G. Ku, Lihong Wang (2005)
Deeply penetrating photoacoustic tomography in biological tissues enhanced with an optical contrast agent.Optics letters, 30 5
A. Pifferi, J. Swartling, E. Chikoidze, A. Torricelli, P. Taroni, A. Bassi, S. Andersson-Engels, R. Cubeddu (2004)
Spectroscopic time-resolved diffuse reflectance and transmittance measurements of the female breast at different interfiber distances.Journal of biomedical optics, 9 6
Robert Kruger, Kathy Miller, Handel Reynolds, W. Kiser, D. Reinecke, G. Kruger (2000)
Breast cancer in vivo: contrast enhancement with thermoacoustic CT at 434 MHz-feasibility study.Radiology, 216 1
S. Ermilov, T. Khamapirad, A. Conjusteau, M. Leonard, R. Lacewell, K. Mehta, T. Miller, A. Oraevsky (2009)
Laser optoacoustic imaging system for detection of breast cancer.Journal of biomedical optics, 14 2
Wendie Berg, Lorena Gutiérrez, Moriel Nessaiver, W. Carter, Mythreyi Bhargavan, Rebecca Lewis, Olga Ioffe, Chile, Pathol-Ogy, Assistance Program, Va Reston (2004)
Diagnostic accuracy of mammography, clinical examination, US, and MR imaging in preoperative assessment of breast cancer.Radiology, 233 3
U. Dailey
Cancer,Facts and Figures about.Journal of the National Medical Association, 14 1
K Kerlikowske (1996)
Likelihood ratios for modern screening mammography. Risk of breast cancer based on age and mammographic interpretationJAMA, J. Am. Med. Assoc., 276
J. Heine, Jerry Thomas (2008)
Effective x-ray attenuation coefficient measurements from two full field digital mammography systems for data calibration applicationsBioMedical Engineering OnLine, 7
R. Kruger, Pingyu Liu (1994)
Photoacoustic ultrasound: pulse production and detection of 0.5% Liposyn.Medical physics, 21 7
R. Kruger, Pingyu Liu, Yuncai Fang, C. Appledorn (1995)
Photoacoustic ultrasound (PAUS)--reconstruction tomography.Medical physics, 22 10
D. Saslow, C. Boetes, W. Burke, S. Harms, M. Leach, C. Lehman, E. Morris, E. Pisano, M. Schnall, S. Sener, Robert Smith, E. Warner, M. Yaffe, Kimberly Andrews, C. Russell (2007)
American Cancer Society Guidelines for Breast Screening with MRI as an Adjunct to MammographyCA: A Cancer Journal for Clinicians, 57
S. Manohar, Alexei Kharine, J. Hespen, W. Steenbergen, T. Leeuwen (2004)
Photoacoustic mammography laboratory prototype: imaging of breast tissue phantoms.Journal of biomedical optics, 9 6
P. Carney, D. Miglioretti, B. Yankaskas, K. Kerlikowske, R. Rosenberg, C. Rutter, B. Geller, L. Abraham, S. Taplin, M. Dignan, G. Cutter, R. Ballard-Barbash (2003)
Individual and Combined Effects of Age, Breast Density, and Hormone Replacement Therapy Use on the Accuracy of Screening MammographyAnnals of Internal Medicine, 138
R. Rosenberg, W. Hunt, M. Williamson, Frank Gilliland, P. Wiest, C. Kelsey, C. Key, M. Linver (1998)
Effects of age, breast density, ethnicity, and estrogen replacement therapy on screening mammographic sensitivity and cancer stage at diagnosis: review of 183,134 screening mammograms in Albuquerque, New Mexico.Radiology, 209 2
B. Tromberg, B. Pogue, K. Paulsen, A. Yodh, D. Boas, A. Cerussi (2008)
Assessing the future of diffuse optical imaging technologies for breast cancer management.Medical physics, 35 6
A. Cerussi, N. Shah, D. Hsiang, A. Durkin, J. Butler, B. Tromberg (2006)
In vivo absorption, scattering, and physiologic properties of 58 malignant breast tumors determined by broadband diffuse optical spectroscopy.Journal of biomedical optics, 11 4
G. Cherrick, S. Stein, C. Leevy, C. Davidson (1960)
Indocyanine green: observations on its physical properties, plasma decay, and hepatic extraction.The Journal of clinical investigation, 39
G. Brix, J. Griebel, F. Kiessling, F. Wenz (2010)
Tracer kinetic modelling of tumour angiogenesis based on dynamic contrast-enhanced CT and MRI measurementsEuropean Journal of Nuclear Medicine and Molecular Imaging, 37
K. Kerlikowske, D. Grady, Jonathan Barclay, E. Sickles, V. Ernster (1996)
Likelihood ratios for modern screening mammography. Risk of breast cancer based on age and mammographic interpretation.JAMA, 276 1
C. Dromain, C. Balleyguier, G. Adler, J. Garbay, S. Delaloge (2009)
Contrast-enhanced digital mammography.European journal of radiology, 69 1
M. Moon, D. Cornfeld, J. Weinreb (2009)
Dynamic contrast-enhanced breast MR imaging.Magnetic resonance imaging clinics of North America, 17 2
C. Haisch, Karin Eilert-Zell, M. Vogel, P. Menzenbach, R. Niessner (2010)
Combined optoacoustic/ultrasound system for tomographic absorption measurements: possibilities and limitationsAnalytical and Bioanalytical Chemistry, 397
Contrast enhancement of breast cancer in vivo using thermoacoustic CT at 434 MHz
W. Kiser, R. Kruger (1999)
Thermoacoustic computed tomography: limits to spatial resolution, 3659
R. Kruger, W. Kiser, D. Reinecke, G. Kruger, K. Miller (2003)
Thermoacoustic molecular imaging of small animals.Molecular imaging, 2 2
Purpose: The authors report a noninvasive technique and instrumentation for visualizing vasculature in the breast in three dimensions without using either ionizing radiation or exogenous contrast agents, such as iodine or gadolinium. Vasculature is visualized by virtue of its high hemoglobin content compared to surrounding breast parenchyma. The technique is compatible with dynamic contrast-enhanced studies. Methods: Photoacoustic sonic waves were stimulated in the breast with a pulsed laser operating at 800 nm and a mean exposure of 20 mJ/pulse over an area of ∼20 cm 2 . These waves were subsequently detected by a hemispherical array of piezoelectric transducers, the temporal signals from which were filtered and backprojected to form three-dimensional images with nearly uniform k-space sampling. Results: Three-dimensional vascular images of a human volunteer demonstrated a clear visualization of vascular anatomy with submillimeter spatial resolution to a maximum depth of 40 mm using a 24 s image acquisition protocol. Spatial resolution was nearly isotropic and approached 250 μ m over a 64×64×50 mm field of view. Conclusions: The authors have successfully visualized submillimeter breast vasculature to a depth of 40 mm using an illumination intensity that is 32 times less than the maximum permissible exposure according to the American National Standard for Safe Use of Lasers . Clearly, the authors can achieve greater penetration depth in the breast by increasing the intensity and the cross-sectional area of the illumination beam. Given the 24 s image acquisition time without contrast agent, dynamic, contrast-enhanced, photoacoustic breast imaging using optically absorbing contrast agents is conceivable in the future.
Medical Physics – American Association of Physicists in Medicine
Published: Nov 1, 2010
Keywords: biomedical optical imaging; biomedical ultrasonics; blood vessels; cancer; data acquisition; data visualisation; mammography; medical image processing; photoacoustic effect; photoacoustic; computed; tomography; breast; cancer
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