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Introduction This paper reports the key findings of the Faculty of Radiation Oncology 2018 workforce census and compares results with previous studies. Methods The census was conducted in mid‐2018 with distribution to all radiation oncologists and trainees listed on the college database in Australia, New Zealand, Singapore and overseas. There were new questions about hours spent on multidisciplinary meetings (MDTS), leadership positions held, management of inpatients, hypofractionation, stereotactic body radiation therapy (SBRT), income type and gynae‐oncology work for radiation oncologists. Trainees were asked about time spent on planning and contouring. Results The overall response rate was 69.9% with 67.7% of radiation oncologists and 77.9% of trainees responding. There were 514 radiation oncologists with 60% male and a mean age of 49 years (median = 46 years, range 31–91). The majority of respondents were Caucasian (57.7%) and from New South Wales (29.4%). Sixty‐one per cent were subspecialists with breast, SBRT and urological cancers, the most popular areas of interest, and 56% held leadership positions. The majority worked in the public sector (55.7%), but 31.7% worked solely in the private sector with an average working week of 43.4 hours (h) (median = 44, range 2–110). Radiation oncologists spent an average of 3.6 h on MDTS (median = 4 h), 2.2h (median = 2 h) on simulation and 8 h (median = 5 h) on contouring per week. They averaged 245 new patients (median = 250, range 30–695) and 25 inpatients (median = 20) per year. Hypofractionation was used for radical treatment of breast (75%) and prostate cancer (49%). Radiation oncologists were mainly remunerated with a fixed income (53%) with 40% having some incentive‐based income. There were 140 trainees with an equal male and female distribution. The large majority (88%) were satisfied with their career and network (83%). Most trainees worked between 36 and 55h per week with 15% having no protected time. Most trainees spent less than 5 hours on planning each week and job availability remained a major concern (90%). Conclusions The radiation oncologist numbers have increased significantly, but unemployment remains low. Many parameters remain similar to the 2014 census, but new information has been obtained on special interest areas, leadership positions, gynae‐oncology, inpatients, hypofractionation use, remuneration and contouring. Trainee numbers remain stable with an increased percentage satisfied with their career with much less concern about oversupply. Protected time remains an issue with contouring time and teaching emerging as a potential issue.
Introduction This paper reports the key findings of the Faculty of Radiation Oncology 2018 workforce census and compares results with previous studies. Methods The census was conducted in mid‐2018 with distribution to all radiation oncologists and trainees listed on the college database in Australia, New Zealand, Singapore and overseas. There were new questions about hours spent on multidisciplinary meetings (MDTS), leadership positions held, management of inpatients, hypofractionation, stereotactic body radiation therapy (SBRT), income type and gynae‐oncology work for radiation oncologists. Trainees were asked about time spent on planning and contouring. Results The overall response rate was 69.9% with 67.7% of radiation oncologists and 77.9% of trainees responding. There were 514 radiation oncologists with 60% male and a mean age of 49 years (median = 46 years, range 31–91). The majority of respondents were Caucasian (57.7%) and from New South Wales (29.4%). Sixty‐one per cent were subspecialists with breast, SBRT and urological cancers, the most popular areas of interest, and 56% held leadership positions. The majority worked in the public sector (55.7%), but 31.7% worked solely in the private sector with an average working week of 43.4 hours (h) (median = 44, range 2–110). Radiation oncologists spent an average of 3.6 h on MDTS (median = 4 h), 2.2h (median = 2 h) on simulation and 8 h (median = 5 h) on contouring per week. They averaged 245 new patients (median = 250, range 30–695) and 25 inpatients (median = 20) per year. Hypofractionation was used for radical treatment of breast (75%) and prostate cancer (49%). Radiation oncologists were mainly remunerated with a fixed income (53%) with 40% having some incentive‐based income. There were 140 trainees with an equal male and female distribution. The large majority (88%) were satisfied with their career and network (83%). Most trainees worked between 36 and 55h per week with 15% having no protected time. Most trainees spent less than 5 hours on planning each week and job availability remained a major concern (90%). Conclusions The radiation oncologist numbers have increased significantly, but unemployment remains low. Many parameters remain similar to the 2014 census, but new information has been obtained on special interest areas, leadership positions, gynae‐oncology, inpatients, hypofractionation use, remuneration and contouring. Trainee numbers remain stable with an increased percentage satisfied with their career with much less concern about oversupply. Protected time remains an issue with contouring time and teaching emerging as a potential issue.
This section focuses on the professional workforce comprised of the primary medical specialties that utilize ionizing radiation in their practices. Those discussed include the specialties of radiology and radiation oncology, as well as the subspecialties of radiology,namely diagnostic radiology,interventional radiology, nuclear radiology, and nuclear medicine. These professionals provide essential health care services, for example, the interpretation of imaging studies, the provision of interventional procedures, radionuclide therapeutic treatments, and radiation therapy. In addition, they may be called on to function as part of a radiologic emergency response team to care for potentially exposed persons following radiation events, for example, detonation of a nuclear weapon, nuclear power plant accidents, and transportation incidents. For these reasons, maintenance of an adequate workforce in each of these professions is essential to meeting the nation's future needs.Currently,there is a shortage for all physicians in the medical radiology workforce.
Underserved communities in the radiation therapy land of plenty -Physicists' perspectiveA phrase that's often used in the space of global health research is "global health is local health." Yet in the space of local health, few publications and very little of the attention of professional organizations within our sphere, including the American Association of Physicists in Medicine's (AAPM) and the American Society for Radiation Oncology (ASTRO), have prioritized access to care in rural and underserved communities in the United States. While the AAPM has an entire international council focused on a myriad of global issues, there is nothing similar for underserved communities in the United States. ASTRO has the ARRO Global Health Subcommittee, and within the United States prioritizes access to care almost exclusively in the context of Medicare reform and prior authorization. To its credit, the Radiation Oncology Institute (ROI) recently launched a funding mechanism to address geographic barriers and "reduce disparities in radiation care for underserved populations in domestic or global settings." In this editorial, we highlight the scope of the access to healthcare problem here in the United States, with a goal of raising awareness and activism within the clinical medical physics community. Rural areas are one example of communities in the United States challenged with access to healthcare. Deaths from heart disease, cancer and stroke are all higher in rural areas, and the gap is widening, with studies suggesting the mortality gap between rural and urban areas has doubled since 2000. 1 There are far fewer physicians per capita in rural areas than in nonrural areas: one fifth of the US population resides in rural areas while only one tenth of all physicians practice in these areas. 2,3 Oncology specialists, as is the case with most medical specialties, are even more concentrated in urban areas; only 3% of medical oncologists practice in rural areas, and at the same time over 70% of counties in the United States have no access to medical oncologists. 2 The 2017 ASTRO Workforce Study 4 found that 88% of radiation oncologists practiced in urban or suburban areas (of whom 18% planned to retire in the next 5 years), and that only 13% practiced in the rural areas that account for roughly 20% of the US population (of whom 30% planned to retire in the next 5 years).
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