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Physicians' work with sickness certifications is an understudied field. The aims of this study were to gain knowledge of experiences concerning the sickness certification process among physicians working at oncology clinics. In 2008, all physicians working in Sweden ( n = 36 898) were sent a questionnaire concerning sick-listing practices. All respondents working at an oncology clinic ( n = 428) were included in the current study. Most of the physicians had sickness certification consultations at least weekly (91.3%). More than one fifth (22.3%) reported that they worked at a clinic with a workplace policy regarding the handling of sickness certification and 61.1% reported receiving at least some support in such cases from their immediate manager. Issuing unnecessary long sickness certificates were related to experiencing delicate interactions with patients and to lack of time. To a moderate degree, further competence was requested regarding: different types of compensation in the social insurance system, responsibilities of the Social Insurance Agency and employers, and sickness insurance rules. The large majority of physicians working in oncology reported regularly having consultations involving sickness certification. Overall, they reported few problems, low level of need for more competence regarding sickness certification, and low frequency of issuing sickness absences for longer periods than necessary. [ABSTRACT FROM AUTHOR]

Abstract: The experimental setup SCANDAL, used for measurements of the differential cross section for elastic and inelastic neutron scattering, has recently been upgraded with larger CsI scintillating detectors to enable measurements at energies up to 175 MeV. Measurements on Fe, Bi and Si have been carried out using the quasi mono-energetic neutron beam at the The Svedberg Laboratory, and data is under analysis. The experimental setup can be used for measurements on a wide range of target nuclei, including C and O, which are important for dosimetry applications. SCANDAL can also run in proton mode, for measurements of the (n,p) reaction. This paper describes the new experimental setup, and reports on its properties, such as energy resolution. [ABSTRACT FROM AUTHOR]

We describe the research program of the nuclear reactions research group at Uppsala University concerning experimental and theoretical efforts to quantify and reduce nuclear data uncertainties relevant for the nuclear fuel cycle. We briefly describe the Total Monte Carlo (TMC) methodology and how it can be used to study fuel cycle and accident scenarios, and summarize our relevant experimental activities. Input from the latter is to be used to guide the nuclear models and constrain parameter space for TMC. The TMC method relies on the availability of good nuclear models. For this we use the TALYS code which is currently being extended to include the GEF model for the fission channel. We present results from TALYS-1.6 using different versions of GEF with both default and randomized input parameters and compare calculations with experimental data for 234 U(n,f) in the fast energy range. These preliminary studies reveal some systematic differences between experimental data and calculations but give overall good and promising results. [ABSTRACT FROM AUTHOR]

Abstract: Double-differential cross sections of inclusive light-ion (p, d, t, 3He and α) production in carbon induced by 96 MeV neutrons have been measured at eight laboratory angles from 20° to 160° in steps of 20°. Experimental techniques, as well as procedures for data taking and data reduction, are presented. Deduced energy-differential and production cross sections are herewith reported. Experimental cross sections are compared with theoretical reaction model calculations and experimental data in the literature. The measured production cross sections for protons, deuterons, tritons, 3He, and α particles support the trends suggested by data at lower energies. Deduced partial kerma coefficients for carbon are also shown. [ABSTRACT FROM AUTHOR]

Abstract: Double-differential cross sections for neutron-induced light-ion production at 96 MeV have been measured for a variety of nuclei at The Svedberg Laboratory. Using the measured cross-section data, we deduce the Kerma coefficient from carbon and oxygen for p, d, t, 3He and α particles. In order to get the total Kerma for C and O, we add GNASH calculation values where experimental data are not available and obtain a Kerma coefficient of 7.85 ± 0.63 fGy m2 for carbon and 7.09 ± 0.57 fGy m2 for oxygen. The C/O Kerma coefficient ratio then becomes 1.11 ± 0.11. In addition we determine the Kerma ratio between ICRU muscle and A-150, again adding calculations with the GNASH code where no experimental data are available, and obtain a value of 0.98 ± 0.05. While the Kerma coefficients for carbon and oxygen do not agree with the prediction in ICRU Report 63, the ratio values are in good agreement with existing predictions. [ABSTRACT FROM AUTHOR]