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1.
Br J Radiol ; 74(878): 195-202, 2001 Feb.
Article in English | MEDLINE | ID: mdl-11718396

ABSTRACT

Artefacts on radiographic images are distracting and may compromise accurate diagnosis. Although most artefacts that occur in conventional radiography have become familiar, computed radiography (CR) systems produce artefacts that differ from those found in conventional radiography. We have encountered a variety of artefacts in CR images that were produced from four different models plate reader. These artefacts have been identified and traced to the imaging plate, plate reader, image processing software or laser printer or to operator error. Understanding the potential sources of CR artefacts will aid in identifying and resolving problems quickly and help prevent future occurrences.


Subject(s)
Artifacts , Radiographic Image Enhancement , Humans , Image Processing, Computer-Assisted , Printing , Technology, Radiologic
2.
J Digit Imaging ; 12(2 Suppl 1): 155-9, 1999 May.
Article in English | MEDLINE | ID: mdl-10342198

ABSTRACT

We prospectively compared image and report delivery times in our Urgent Care Center (UCC) during a film-based practice (1995) and after complete implementation of an electronic imaging practice in 1997. Before switching to a totally electronic and filmless practice, multiple time periods were consistently measured during a 1-week period in May 1995 and then again in a similar week in May 1997 after implementation of electronic imaging. All practice patterns were the same except for a film-based practice in 1995 versus a filmless practice in 1997. The following times were measured: (1) waiting room time, (2) technologist's time of examination, (3) time to quality control, (4) radiology interpretation times, (5) radiology image and report delivery time, (6) total radiology turn-around time, (7) time to room the patient back in the UCC, and (8) time until the ordering physician views the film. Waiting room time was longer in 1997 (average time, 26:47) versus 1995 (average time, 15:54). The technologist's examination completion time was approximately the same (1995 average time, 06:12; 1997 average time, 05:41). There was also a slight increase in the time of the technologist's electronic verification or quality control in 1997 (average time, 7:17) versus the film-based practice in 1995 (average time, 2:35). However, radiology interpretation times dramatically improved (average time, 49:38 in 1995 versus average time 13:50 in 1997). There was also a decrease in image delivery times to the clinicians in 1997 (median, 53 minutes) versus the film based practice of 1995 (1 hour and 40 minutes). Reports were available with the images immediately upon completion by the radiologist in 1997, compared with a median time of 27 minutes in 1995. Importantly, patients were roomed back into the UCC examination rooms faster after the radiologic procedure in 1997 (average time, 13:36) than they were in 1995 (29:38). Finally, the ordering physicians viewed the diagnostic images and reports in dramatically less time in 1997 (median, 26 minutes) versus 1995 (median, 1 hour and 5 minutes). In conclusion, a filmless electronic imaging practice within our UCC greatly improved radiology image and report delivery times, as well as improved clinical efficiency.


Subject(s)
Radiology Information Systems , Tomography, X-Ray Computed , Adult , Appointments and Schedules , Efficiency, Organizational , Female , Hospitals, Group Practice , Humans , Male , Outpatient Clinics, Hospital/organization & administration , Prospective Studies , Quality Control , Referral and Consultation , Technology, Radiologic , Time Factors , X-Ray Film
3.
J Digit Imaging ; 10(3 Suppl 1): 36-7, 1997 Aug.
Article in English | MEDLINE | ID: mdl-9268834

ABSTRACT

In order to gain experience with vendor-supplied picture archive and communication system (PACS) products, a Vantage PACS from Lockheed-Martin was installed in a Mayo community medicine practice in Rochester. This practice produces about 45,000 radiology examinations annually. The PACS includes central long- and short-term storage devices, 10 image display workstations, and a dedicated high-speed image distribution network. Digital images are produced using two Fuji computed radiography readers. Custom worklists were created to facilitate efficient system usage. Currently, all radiographic examinations for this practice are acquired digitally, and interpreted and distributed using the PACS. Remote softcopy interpretation via PACS has decreased the turnaround time for both routine and urgent examinations, and has allowed subspecialty interpretation or consultation for pediatric examinations. These results have significantly improved the radiology component of this community medicine practice.


Subject(s)
Radiology Department, Hospital , Radiology Information Systems , Community Health Centers , Humans , Radiology Information Systems/instrumentation , Radiology Information Systems/organization & administration
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