The role of target 3D-reconstructions when analysyng qualitative characteristics of the surface of circular-shaped growth in the lungs
https://doi.org/10.20538/1682-0363-2016-5-39-55
Abstract
The purpose of this paper is to improve the accuracy of X-ray diagnostics of circular-shaped growth (CSG) by developing computed tomographic semiotics of qualitative characteristics of its surface and the state of the surrounding bronchi using target 3D-reconstruction.
Material and methods. 560 patients at the age of 3–89 years were examined. Target 3D reconstruction was carried out with the use of 3D Fly Through program (Toshiba Medical Systems, Japan) which removed the tissue surrounding CSG at a distance of 5–10 mm from the outer boundaries.
CSG was inscribed into a cube. In case of the primary central and peripheral lung cancer a number of patients with severe rough surface of CSG prevailed over a number of patients with slightly rough surface was detected. In case of infiltrative tuberculosis, pneumonia, echinococcus, retention cysts the prevalence of a number of patients with slightly rough surface of CSG over a number of patients with rough surface was identified. In case of single cancer metastases, single and multiple tuberculomas the prevalence of a number of patients with non-uniform smooth surface of CSG over a number of patients with uniform smooth surface was identified. In case of multiple cancer metastasis, focal tuberculosis, cysticercosis the prevalence of a number of patients with a uniform smooth surface of CSG over a number of patients with uneven smooth surface was identified. In case of benign tumors, eosinophilic infiltrate, gamartohondroma, aspergilloma, chronic abscess, intrapulmonary hematoma there was not difference between the number of patients with a uniform smooth surface of CSG and a number of patients with uneven smooth surface. In case of primary lung cancer metastasis, single and multiple tuberkulomas, echinococcus, cysticercosis there was a prevalence of the number of patients with expressed deformed bronchi surrounding CSL over a number of patients with moderately deformed bronchi. In case of infiltrative and focal tuberculosis there was prevalence of a number of patients with moderately deformed bronchi surrounding CSL over a number of patients with expressed deformed bronchi.
Results. In case of pneumonia, benign tumors, retention cysts, gamartohondroma, aspergilloma, chronic abscesses, and intrapulmonary hematomas there was no difference between the number of patients with expressed deformed bronchi surrounding CSL, and a number of patients with moderately deformed bronchi. Patients with single and multiple metastases, eosinophilic infiltration, bronchi surrounding CSL were not changed. It is necessary to develop a software that allows quantitatively characterize the surface of CSL and the degree of deformation of the surrounding bronchi.
About the Authors
V. G. KolmogorovRussian Federation
PhD , Head of the Department of Radiation Diagnosis,
75a, Komsomolsky Av., Barnaul
V. K. Konovalov
Russian Federation
Рrofessor of the Department of Оncology, Radiation Therapy, Radiation Diagnosis with the Course of Additional Post-graduate Education,
40, Lenina Av., Barnaul
S. L. Leonov
Russian Federation
DTSc, Professor of the Department of Automated Production Technology,
46, Lenina Av., Barnaul
M. N. Lobanov
Russian Federation
PhD , Head of the Hepartment of Radiation Diagnosis,
1/3, Lupidevskogo Str., Barnaul
References
1. Rozenshtrauh L.S. Psihofiziologicheskie faktory v rentgenodiagnostike [Physiological factors in Diagnostic Radiology] // Vestnik rent-genologii i radiologii – Russian journal of radiology. 1994; 4: 57–61. (in Russian).
2. Konovalov V.K., Shojhet Ja.N., Lobanov M.N., Shevchuk Ju.A., Bobrov I.P., Kolmogorov V.G. Primenenie 3D rekonstrukcij pri topograficheskoj mul’tispiral’noj komp’juterno-tomograficheskoj diagnostike sharovidnyh obrazovanij legkih [Application of 3D reconstructions for topographic multislice computed tomography diagnosis of lung spherical formations] // Problemy klinicheskoj mediciny – Problems of clinical medicine. 2011; 1–2: 52–59 (in Russian).
3. Solodkij V.A., Kotljarov P.M., Shherbahina E.V., Egorova E.V., Shaduri E.V. Rol’ mul’tiplanarnyh rekonstrukcij pri postprocessingovoj obrabotke izobrazhenij v diagnostike ochagovyh obrazovanij legkih [The role of multiplanar reconstructions postprotsessing imaging in the diagnosis of lung focal lesions] // Medicinskaja vizualizacija – Medical imaging. 2010; 2: 81–87 (in Russian).
4. Horuzhik S.A., Mihajlov A.N. Osnovy KT-vizualizacii. Chast’ 2. Postprocessingovaja obrabotka izobrazhenij [Basics of CT imaging. Part 2. Postprotsessing image treatment] // Radiologija-praktika – Radiology-practice. 2011; 4: 52–65 (in Russian).
5. User guide of Vitrea® 2 workstation, version 3.9, a software package of lung analysis VPMC-7854B (08/2006). Vital Images Inc.Company. 2006: 9–19.
6. Kim M., Lee J.M., Yoon J.H., Son H., Choi J.W., Han J.K., Choi B.I. Adaptive iterative dose reduction algorithm in CT: effect on image quality compared with filtered back projection in body phantoms of different sizes // Korean J. Radiol. 2014; 15(2): 195–204. DOI: 10.3348/kjr.2014.15.2.195.
7. Xie X., Zhao Y., Snijder R.A., van Ooijen P.M., de Jong P.A., Oudkerk M. de Bock G.H., Vliegenthart R., Greuter M.J. Sensitivity and accuracy of volumetry of pulmonary nodules on low-dose 16- and 64-row multi-detector CT: an anthropomorphic phantom study // Eur. Radiol. 2013; 23(1): 139–147. DOI: 10.1007/s00330-012-2570-7.
8. Chae H.D., Park C. M., Park S. J., Lee S. M., Kim K. G., Goo J. M. Computerized Texture Analysis of Persistent Part-Solid Ground-Glass Nodules: Differentiation of Preinvasive Lesions from Invasive Pulmonary Adenocarcinomas // Radiology. 2014; 273(1): 285–293. DOI: 10.1148/radiol.14132187.
9. Song Y.S., Park C.M., Park S.J., Lee S.M., Jeon Y.K., Goo J.M. Volume and Mass Doubling Times of Persistent Pulmonary Subsolid Nodules Detected in Patients without Known Malignancy // Radiology. 2014; 273 (1): 276–284. DOI: 10.1148/radiol.14132324.
10. Higuchi K., Nagao M., Matsuo Y., Sunami S., Kamitani T., Jinnouchi M., Yonezawa M., Yamasaki Y., Yabuuchi H., Hatkenaka M., Honda H. Detection of ground-glass opacities by use of hybrid iterative reconstruction (iDose) and low-dose 256-section computed tomography: a phantom study // Radiol. Phys. Technol. 2013; 6: 299–304. DOI: 10.1007/s12194-013-0200-y.
11. Il’in V.A., Poznjak Je.G. Analiticheskaja geometrija [Analytic geometry]. M.: Phizmatlit Publ., 2002: 240 (in Russian).
12. Kudrjavcev L.D. Kurs matematicheskogo analiza [Mathematical Analysis Course]. M.: Drofa Publ., 2006: 570 (in Russian).
Review
For citations:
Kolmogorov V.G., Konovalov V.K., Leonov S.L., Lobanov M.N. The role of target 3D-reconstructions when analysyng qualitative characteristics of the surface of circular-shaped growth in the lungs. Bulletin of Siberian Medicine. 2016;15(5):39-55. (In Russ.) https://doi.org/10.20538/1682-0363-2016-5-39-55