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The Spanish Constitution of 1978 established a healthcare system available to everyone and free at the point of service. The General Health Law of 1986 also established the framework for a National Health System (NHS). The Constitution and the law form the regulatory framework for the devolution of healthcare services to the Autonomous Regions. All the 17 Autonomous Regions have complete power regarding public health and planning. However, responsibilities on healthcare financing, organization, provision, and management have devolved to only seven Autonomous Regions. Financial support for health services comes mostly from taxes. Global budgets are a mechanism used by hospitals to control the acquisition of medium and low health technology. Major capital investments for health technology are controlled by the central government in 10 Autonomous Regions (population coverage of 38%) and by the Regional Health Services in the seven remaining Autonomous Regions. In 1995 a regulation for basing the introduction of new procedures and medical equipment on the assessment of safety, efficacy, and efficiency was issued. Health technology assessment (HTA) has a long history in Spain, beginning with the Advisory Board on High Technology in the government of Catalonia in 1984. This board evolved into the Catalan Agency for HTA (CAHTA) in 1994. The Basque Country established a unit for HTA in 1992 (Osteba) and the Andalusian government created an agency in 1996 (AETSA). A national agency for HTA (AETS) was established in 1994. These different programs coordinate their work and together act as an Advisory Committee of the Interregional Council of the NHS.

PCR analysis of species‐specific bacterial 16S rRNA gene of Tropheryma whippelii was performed in biopsies from 10 cases of Whipple's disease (WD). In seven patients showing the typical clinical picture of WD, PCR was performed on the diagnostic intestinal biopsy. In the remaining three cases (an autopsy case of disseminated WD and two patients showing lymphadenopathy as the initial clinical presentation), PCR was done on lymph node specimens. In one of the lymph node biopsies, an unusual sarcoidlike granulomatous reaction had led to the diagnosis of sarcoidosis. The specific bacterial DNA was detected in all cases, both in intestinal biopsies and in lymph node specimens. Follow‐up biopsies after antibiotic therapy were evaluated in two patients. The two follow‐up biopsies were negative, although in both of them scattered nests of PAS‐positive macrophages remained. The results of this study suggest that PCR analysis of species‐specific sequences of the 16S rRNA of Tropheryma whippelii is a very useful tool for the pathological diagnosis of WD. It confirms the diagnosis of WD in intestinal biopsies as well as in extraintestinal sites, even when the morphological appearance is not typical. It is also the most precise technique for monitoring therapeutic effects. Copyright © 1999 John Wiley & Sons, Ltd.

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