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    <title>Post, P.N.</title>
    <link>http://repub.eur.nl/res/aut/7142/</link>
    <description>List of Publications</description>
    <language>en</language>
    <image>
      <url>http://repub.eur.nl/static-eur/img/logo.png</url>
      <title>RePub, Erasmus University Rotterdam</title>
      <link>http://repub.eur.nl</link>
    </image>
    <item>
      <title>The Utility of Health States After Stroke: A Systematic Review of the Literature (Article)</title>
      <link>http://repub.eur.nl/res/pub/23029/</link>
      <pubDate>2001-06-01T00:00:00Z</pubDate>
      <description>Background—: To perform decision analyses that include stroke as one of the possible health states, the utilities of stroke states must be determined. We reviewed the literature to obtain estimates of the utility of stroke and explored the impact of the study population and the elicitation method.
   
Summary of Review—: We searched various databases for articles reporting empirical assessment of utilities. Mean utilities of major stroke (Rankin Scale 4 to 5) and minor stroke (Rankin Scale 2 to 3) were calculated, stratified by study population and elicitation method. Additionally, the modified Rankin Scale was mapped onto the EuroQol classification system. Utilities were obtained from 23 articles. Patients at risk for stroke assigned utilities of 0.26 and 0.55 to major and minor stroke, respectively. Stroke survivors assigned higher utilities to both major (0.41) and minor stroke (0.72). The EuroQol completed by stroke survivors revealed a utility of 0.32 and 0.71 for major and minor stroke, respectively. Utilities elicited by the Standard Gamble were generally higher, while those obtained by the Visual Analogue Scale were lower than the Time Trade Off values. Remaining variation between utilities may be caused by differences in definitions of the health states. The mapped EuroQol indicated a utility of 0.64 for minor stroke and a value just below zero for major stroke.
   
Conclusions—: For minor stroke, a utility between 0.50 and 0.70 seems to be reasonable for both decision analyses and cost-effectiveness studies. The utility of major stroke may range between 0 and 0.30 and may possibly be negative.</description>
    </item> <item>
      <title>Incidence and survival of prostate cancer since 1970 (Doctoral Thesis)</title>
      <link>http://repub.eur.nl/res/pub/19775/</link>
      <pubDate>1999-03-31T00:00:00Z</pubDate>
      <description>In NOlih America and many European countries, prostate cancer has become the
second most common and in some countries even the most common cancel' among
men during the past two decades. I Since the age-specific incidence increases steeply
after the age of 50 years, a considerable proportion of the increase in the cmde
incidence rate for prostate cancer is due to the ageing of the population. Moreover,
decreases in mOliality due to benign prostatic hyperplasia,' cardiovascular diseases'
and lung caucer' may have increased the probability of a diagnosis of prostate cancer.
However, the age-standardized incidence has increased considerably as weil.l
Therefore, one might assume that the risk of prostate cancer has increased over the
past two decades. The aetiology, however, has not as yet been clarified.</description>
    </item> <item>
      <title>Increased risk of fatal prostate cancer may explain the rise in mortality in The Netherlands (Article)</title>
      <link>http://repub.eur.nl/res/pub/9137/</link>
      <pubDate>1999-01-01T00:00:00Z</pubDate>
      <description>BACKGROUND: Several lines of evidence suggest that, as a result of
          improved diagnostic techniques, the increase in incidence of prostate
          cancer is due largely to increased detection of subclinical cases. Between
          1971 and 1989, a considerable increase in incidence was found in
          Southeastern Netherlands among men aged under 60 years without an
          improvement in prognosis. We hypothesized that in addition to the increase
          due to increased detection, a genuine increase in incidence has occurred
          in the last two decades and that this should be reflected in national
          mortality rates. METHODS: Age-specific and age-adjusted mortality rates
          were calculated to determine whether mortality due to prostate cancer
          continued to increase after 1990. Using log-linear Poisson modelling
          according to Clayton and Schifflers, we estimated the contribution of
          period and cohort effects to prostate cancer mortality between 1955 and
          1994. RESULTS: The age-adjusted mortality increased from 22 in 1955-1959
          to 33 per 10(5) in 1990-1994 (European standardized rate). For men under
          65, the rates stabilized after 1989. The age-cohort model fitted the data
          better than the age-period model. Therefore, the increase in mortality can
          be explained largely by the increasing risk for successive birth cohorts
          for men born until 1930. However, more frequent reporting of prostate
          cancer as the underlying cause of death (partly attributable to a decline
          in competing causes of death) may have occurred as well. CONCLUSIONS: Our
          findings suggest an increased risk of fatal prostate cancer in The
          Netherlands between 1955 and 1994.</description>
    </item>
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