Digital slot-scan charge-coupled device radiography versus AMBER and Bucky screen-film radiography for detection of simulated nodules and interstitial disease in a chest phantom. 2004

Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
Department of Radiology, C2-S, Leiden University Medical Center, C2S, Albinusdreef 2, 2333 ZA Leiden, The Netherlands. l.j.m.kroft@lumc.nl

OBJECTIVE To evaluate the diagnostic performance of full-field slot-scan charge-coupled device (CCD)-based digital radiography in the detection of simulated chest diseases in clinical conditions versus that of two screen-film techniques: advanced multiple beam equalization radiography (AMBER) and Bucky radiography. METHODS Simulated nodules and interstitial nodular and interstitial linear lesions were attached onto an anthropomorphic chest phantom. One hundred sixty-eight lesions were distributed over 25 configurations. A posteroanterior chest radiograph of each configuration was obtained with each technique. The images were presented to six observers. Each lesion was assigned one of two outcome scores: "detected" or "not detected." False-positive readings were evaluated. Differences between the imaging methods were analyzed by using a semiparametric logistic regression model. RESULTS For simulated nodules and interstitial linear disease, no statistically significant difference was found in diagnostic performance between CCD digital radiography and AMBER. The detection of simulated interstitial nodular disease was better with CCD digital radiography than with AMBER: Sensitivity was 71% (77 of 108 interstitial nodular lesions) with CCD digital radiography but was 56% (60 of 108 lesions) with AMBER (P =.041). Better results for the detection of all lesion types in the mediastinum were observed with CCD digital radiography than with Bucky screen-film radiography: Sensitivity was 45% (227 of 504 total simulated lesions) with CCD digital radiography but was 24% (119 of 504 lesions) with Bucky radiography (P <.001). There were fewer false-positive observations with CCD digital radiography (35 [5.7%] of 609 observations) than with Bucky radiography (47 [9.5%] of 497 observations; P =.012). CONCLUSIONS Differences were in favor of the full-field slot-scan CCD digital radiographic technique. This technique provides a digital alternative to AMBER and Bucky screen-film radiography.

UI MeSH Term Description Entries
D008482 Mediastinum A membrane in the midline of the THORAX of mammals. It separates the lungs between the STERNUM in front and the VERTEBRAL COLUMN behind. It also surrounds the HEART, TRACHEA, ESOPHAGUS, THYMUS, and LYMPH NODES.
D011856 Radiographic Image Enhancement Improvement in the quality of an x-ray image by use of an intensifying screen, tube, or filter and by optimum exposure techniques. Digital processing methods are often employed. Digital Radiography,Image Enhancement, Radiographic,Radiography, Digital,Enhancement, Radiographic Image,Enhancements, Radiographic Image,Image Enhancements, Radiographic,Radiographic Image Enhancements
D011857 Radiographic Image Interpretation, Computer-Assisted Computer systems or networks designed to provide radiographic interpretive information. Computer Assisted Radiographic Image Interpretation,Computer-Assisted Radiographic Image Interpretation,Radiographic Image Interpretation, Computer Assisted
D003074 Solitary Pulmonary Nodule A single lung lesion that is characterized by a small round mass of tissue, usually less than 1 cm in diameter, and can be detected by chest radiography. A solitary pulmonary nodule can be associated with neoplasm, tuberculosis, cyst, or other anomalies in the lung, the CHEST WALL, or the PLEURA. Coin Lesion, Pulmonary,Pulmonary Coin Lesion,Pulmonary Nodule, Solitary,Solitary Lung Nodule,Coin Lesions, Pulmonary,Nodule, Solitary Pulmonary,Nodules, Solitary Pulmonary,Pulmonary Coin Lesions,Pulmonary Nodules, Solitary,Solitary Pulmonary Nodules,Lesion, Pulmonary Coin,Lung Nodule, Solitary,Nodule, Solitary Lung,Solitary Lung Nodules
D004307 Dose-Response Relationship, Radiation The relationship between the dose of administered radiation and the response of the organism or tissue to the radiation. Dose Response Relationship, Radiation,Dose-Response Relationships, Radiation,Radiation Dose-Response Relationship,Radiation Dose-Response Relationships,Relationship, Radiation Dose-Response,Relationships, Radiation Dose-Response
D005189 False Positive Reactions Positive test results in subjects who do not possess the attribute for which the test is conducted. The labeling of healthy persons as diseased when screening in the detection of disease. (Last, A Dictionary of Epidemiology, 2d ed) False Positive Reaction,Positive Reaction, False,Positive Reactions, False,Reaction, False Positive,Reactions, False Positive
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man
D012680 Sensitivity and Specificity Binary classification measures to assess test results. Sensitivity or recall rate is the proportion of true positives. Specificity is the probability of correctly determining the absence of a condition. (From Last, Dictionary of Epidemiology, 2d ed) Specificity,Sensitivity,Specificity and Sensitivity
D012720 Severity of Illness Index Levels within a diagnostic group which are established by various measurement criteria applied to the seriousness of a patient's disorder. Illness Index Severities,Illness Index Severity
D013902 Radiography, Thoracic X-ray visualization of the chest and organs of the thoracic cavity. It is not restricted to visualization of the lungs. Thoracic Radiography,Radiographies, Thoracic,Thoracic Radiographies

Related Publications

Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
September 2004, Radiology,
Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
January 1990, Medical physics,
Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
January 2011, Medical physics,
Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
March 1995, Investigative radiology,
Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
June 2008, Medical physics,
Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
January 2023, BMC medical imaging,
Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
September 1986, Radiology,
Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
March 1998, Academic radiology,
Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
August 1989, RoFo : Fortschritte auf dem Gebiete der Rontgenstrahlen und der Nuklearmedizin,
Lucia J M Kroft, and Jacob Geleijns, and Bart J A Mertens, and Wouter J H Veldkamp, and Harmine M Zonderland, and Albert de Roos
April 1995, Radiology,
Copied contents to your clipboard!