Literature DB >> 8478242

Cost accounting in radiation oncology: a computer-based model for reimbursement.

C A Perez1, B Kobeissi, B D Smith, S Fox, P W Grigsby, J A Purdy, H D Procter, T H Wasserman.   

Abstract

PURPOSE: The skyrocketing cost of medical care in the United States has resulted in multiple efforts in cost containment. The present work offers a rational computer-based cost accounting approach to determine the actual use of resources in providing a specific service in a radiation oncology center. METHODS AND MATERIALS: A procedure-level cost accounting system was developed by using recorded information on actual time and effort spent by individual staff members performing various radiation oncology procedures, and analyzing direct and indirect costs related to staffing (labor), facilities and equipment, supplies, etc. Expenditures were classified as direct or indirect and fixed or variable. A relative value unit was generated to allocate specific cost factors to each procedure.
RESULTS: Different costs per procedure were identified according to complexity. Whereas there was no significant difference in the treatment time between low-energy (4 and 6 MV) or high-energy (18 MV) accelerators, there were significantly higher costs identified in the operation of a high-energy linear accelerator, a reflection of initial equipment investment, quality assurance and calibration procedures, maintenance costs, service contract, and replacement parts. Utilization of resources was related to the complexity of the procedures performed and whether the treatments were delivered to inpatients or outpatients. In analyzing time motion for physicians and other staff, it was apparent that a greater effort must be made to train the staff to accurately record all times involved in a given procedure, and it is strongly recommended that each institution perform its own time motion studies to more accurately determine operating costs. Sixty-six percent of our facility's global costs were for labor, 20% for other operating expenses, 10% for space, and 4% for equipment. Significant differences were noted in the cost allocation for professional or technical functions, as labor, space, and equipment costs are higher in the latter. External beam treatment-related procedures accounted for more than 50% of all technical and professional revenues, simulation for 8% to 10%, and other physics/dosimetry procedures for 11% to 14% of revenues. Some discrepancies were identified between the actual cost and level of reimbursement of various procedures. Details are described in the manuscript.
CONCLUSION: It is imperative to develop an equitable reimbursement system for radiation oncology services, based on cost accounting and other measures that may enhance productivity and reduce the cost per procedure unit, while at the same time preserving the highest quality of service provided to patients.

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Year:  1993        PMID: 8478242     DOI: 10.1016/0360-3016(93)90321-l

Source DB:  PubMed          Journal:  Int J Radiat Oncol Biol Phys        ISSN: 0360-3016            Impact factor:   7.038


  6 in total

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2.  The QUIRO Study (assurance of quality and innovation in radiooncology): methodology, instruments and practices.

Authors:  J Dunst; N Willich; H Sack; R Engenhart-Cabillic; V Budach; W Popp
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Review 3.  Systematic review of hypofractionated radiation therapy for prostate cancer.

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Review 5.  A comparison of robotic arm versus gantry linear accelerator stereotactic body radiation therapy for prostate cancer.

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6.  The challenge of sustainability in healthcare systems: cost of radiotherapy in the last month of life in an Italian cancer center.

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  6 in total

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