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Home Eurosurveillance Weekly Release  2007: Volume 12/ Issue 22 Article 5
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Eurosurveillance, Volume 12, Issue 22, 31 May 2007

Citation style for this article: Schmiedel S, Panning M, Lohse A, Kreymann KG, Gerloff C, Burchard G, Drosten C. Case report on fatal human rabies infection in Hamburg, Germany, March 2007. Euro Surveill. 2007;12(22):pii=3210. Available online:

Case report on fatal human rabies infection in Hamburg, Germany, March 2007

S Schmiedel (, M Panning2, A Lohse1, KG Kreymann1, C Gerloff1, G Burchard1, C Drosten2

1. University Medical Centre, Hamburg, Germany
2. Bernhard-Nocht institute for Tropical Medicine, Hamburg, Germany

In this article we describe the clinical presentation of a fatal case of rabies in a German tourist returning from Morocco.
Rabies is an acute viral encephalomyelitis that is almost invariably fatal. It is caused by rhabdovirus of the genus Lyssavirus and is endemic in wild and domestic animals in many parts of the world. Areas with high risk of human infection are south- and south-east Asia (Nepal, India), but regions with increased risk also exist in Africa, South America and Eastern Europe. Although infection in returning tourists is quite rare [5], a report of another imported case of human rabies infection in an Austrian patient after a dog bite in Morocco in 2004 underlines the importance of public health and travel medicine efforts to raise attention to timely medical counselling and treatment after animal bites in rabies endemic regions [1].
To date, there is only a single report of non-fatal rabies infection in a human [2].

On Tuesday, 17 April* 2007, a 55 year-old man was referred to the University Medical Centre of Hamburg, Germany. He had been bitten in his left hand by a stray dog in Morocco six weeks previously, while trying to separate fighting dogs. He sought medical assistance in Morocco immediately after the incident. Rabies vaccination was not initiated.
Symptoms started on 13 April* (day 1), four weeks after his return to Germany, with paraesthesia and severe pain in the left hand. The patient presented at a local German hospital on 14 April* with fever, nausea, paraesthesia of the left hand, headache and difficulties in swallowing. On the basis of the anamnesis, a rabies infection was suspected, and vaccination was immediately started according to the World Health Organization (WHO) rabies postexposure prophylaxis (PEP) protocol [10] with purified chicken embryo cell vaccine (PCECV, Rabipur, Behring, "Essen-scheme") and anti-rabies hyper-immunoglobuline (HRIG, Berirab, Behring; 20mg/kg).

Treatment and clinical development
Five days after the onset of illness, the patient was transferred to the Hamburg University Medical Centre. A heminested RT-PCR for rabies virus nucleocapsid RNA from two different saliva samples and one corneal swab that was initiated on the same day, was positive. The amplicon sequence showed 99% nucleic acid identity with a genotype 1 rabies virus from Morocco. Antibodies against rabies virus could not be detected in the serum or in the cerebrospinal fluid (CSF), neither by indirect immunofluorescence test (IIFT) nor by ELISA.

Subsequently, deep analgosedation with ketamine, midazolam and respirator therapy was initiated on day six. Exept for amantadine, no other antiviral drugs were given. In addition, vitamin C, coenzyme Q, and tetrahydrobiopterine were administered. The patient was enterally nourished, and low dose catecholamines as well as low molecular heparine in a prophylactic dosage was initiated.

Electroencephalography (EEG), Acoustic-Evoked-Potential examination (AEP) and N. medianus-Sensory-Evoked-Potential examination (SEP) did not show significant pathology. Until eight days after onset of symptoms, no rabies virus antibodies were detectable in serum and cerebrospinal fluid. In order to support seroconversion of the patient, a live attenuated rabies virus vaccine (VirBac, Nice) was administered intradermally. On day 11, increasing rabies virus antibodies were detectable by IIFT in the serum, but not in the CSF. A revaccination with the same vaccine was given on day 15 in the hope to induce an earlier antibody response. The viral load in the CSF decreased constantly from 1.2x103 copies/mL to undetectable levels by day 20. We believe that the virus in the CSF was secondary to the brain damage that had been caused by the introduction of the intracranial pressure probe.

On day 21 the patient developed pathologically raised blood pressure, his pupils became wide, non-reacting and oval. No electrical brain activity could be detected by EEG from day 22 onwards. Whether the suppression of electrical brain activity was due to the high dose of sedative drugs or to brain damage caused by the virus is uncertain, and therefore could not be interpreted as a sign of brain death [11].
The patient was continuously on ketamine for its postulated antiviral potency, even after EEG monitoring showed no electrical brain activity. This therapy was not discontinued because transient EEG findings conclusive with brain death had been described before in the single survivor of a rabies infection [2,3,4,11]. An MRI scan on day 29 showed a generalised oedema of the whole cortex and the basal ganglia. Although ultrasound examination displayed a normal heart function, the patient developed ventricular arrhytmia before death. He died on day 31* after first onset of symptoms from multi-organ failure. Autopsy did not show any significant macropathological findings of the brain, spinal chord, liver, spleen or heart. Further virological, immunological and histopathological investigations are ongoing.

To date there has been only one report of a recovery of a patient with a human rabies infection [2]. The therapeutic strategy that had initially been chosen in this case, had failed in other patients. We therefore felt that we had to modify our therapy. We analysed the transplantation-associated rabies cases in Germany in 2005, a treatment trial of a patient in Thailand 2006, and the case of the rabies survivor in Wisconsin, and developed a vaccine strategy that was aimed at inducing an early antibody response. We administered the vaccine intradermally, hoping to achieve better antigen presentation and response in the skin. In addition, this gave us the opportunity to monitor immune response and viral load in skin biopsies. The concept of deep analgosedation with ketamine was chosen because of a lack treatment alternatives and drugs with the potential to suppress viral spread in tissue cultures, even though this had failed in other treatment trials. Ribavirin was not given due to its lack of anti-rabies activity and its potential to delay cellular immunity [8]. Moreover, we tried to antagonise by supplementation of vitamines and biogen amines the effects of a neurotransmitter imbalance that might contribute to the unfortunate outcome of rabies infections [4,7,9]. Despite the fact that we were able to detect an early antibody response in the serum, and later in the CSF, the viral spread in the brain tissue could not be stopped.

Since the experiences made in the case of the single survivor were not able to improve the outcome of other cases treated similarly [6, and unpublished personal communications], human rabies infections must still be viewed as always fatal. We tried to induce anti-rabies antibody production earlier in the course of illness with the idea to have an immune response against virus infected nerval cells before all neurons are infected. In our patient, this strategy failed.

*Author's correction. All dates referring to 'March' were corrected to 'April' (three exchanges in the second paragraph). The sentence 'He died on day 30…' was corrected to read: 'He died on day 31…' These changes were made on 5 July 2007.

  1. 1. Robert-Koch Institut. Tollwut – ein Erkrankungsfall nach Indienaufenthalt. [In German]. Epidemiologisches Bulletin, 15. Oktober 2004 /Nr. 42. Available from:,templateId=raw,property=publicationFile.pdf/42_04.pdf
  2. Centers for Disease Control and Prevention (CDC). Recovery of a patient from clinical rabies--Wisconsin, 2004. MMWR Morb Mortal Wkly Rep 2004;53(50):1171-3. Available from:
  3. Willoughby RE Jr.A cure for a rabies? Sci Am 2007 Apr;296(4):88-95.
  4. Willoughby RE Jr, Tieves KS, Hoffman GM, Ghanayem NS, Amlie-Lefond CM, Schwabe MJ, et al. Survival after treatment of rabies with induction of coma. N Engl J Med 2005 Jun 16;352(24):2508-14.
  5. Bronnert J, Wilde H, Tepsumethanon V, Lumlertdacha B, Hemachudha T.Organ transplantations and rabies transmission.J Travel Med 2007 May-Jun;14(3):177-80.
  6. Hemachudha T, Sunsaneewitayakul B, Desudchit T, Suankratay C, Sittipunt C, Wacharapluesadee S, et al. Failure of therapeutic coma and ketamine for therapy of human rabies. J Neurovirol 2006 Oct;12(5):407-9.
  7. Juntrakul S, Ruangvejvorachai P, Shuangshoti S, Wacharapluesadee S, Hemachudha T. Mechanisms of escape phenomenon of spinal cord and brainstem in human rabies. BMC Infect Dis 2005 Nov 16;5:104.
  8. Warrell MJ, White NJ, Looareesuwan S, Phillips RE, Suntharasamai P, Chanthavanich P, et al. Failure of interferon alfa and tribavirin in rabies encephalitis. BMJ 1989 Sep 30;299(6703):830-3.
  9. Jackson AC. Rabies: new insights into pathogenesis and treatment.Curr Opin Neurol 2006 Jun;19(3):267-70.
  10. Rupprecht CE, Hanlon CA, Hemachudha T. Rabies re-examined. Lancet Infect Dis 2002 Jun;2(6):327-43.
  11. De Tourtchaninoff M, Hantson P, Mahieu P, Guerit JM. Brain death diagnosis in misleading conditions. QJM 1999 Jul;92(7):407-14.

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