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The Pathologist / Issues / 2016 / Feb / Breaking the Mold
Microbiology & Immunology Microscopy and imaging Clinical care Technology and innovation Microbiology and Immunology Infectious Disease

Breaking the Mold

Diagnostic imaging may detect fungal lung infections faster and more accurately than current methods

By Michael Schubert 02/25/2016 1 min read

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Pulmonary aspergillosis, a disease caused by the Aspergillus fumigatus fungus, is dangerous in patients with compromised immune systems. It’s also notoriously difficult to diagnose; blood tests take time and resources, but lack sensitivity and specificity even under the auspices of skilled diagnosticians. Culturing the fungus from lung biopsies is no easier, as many patients are too fragile to undergo the procedure. Using these methods, diagnosis can take up to a week as physicians wait for results from specialist testing centers – and with the speed at which the disease can progress, this can be a dangerous delay. There’s a clear unmet need, and in a bid to address it, an international research group including Christopher Thornton of the University of Exeter, UK, has developed an accurate, sensitive test based only on readily available imaging techniques.

Thornton initially met his collaborators at a conference, where they began talking about the possibility of such a technique. Despite their enthusiasm, it was only when the European Union put out a specific funding call in the area of imaging technologies for rare disease diagnosis that they were able to acquire the finances and assemble a consortium with the requisite skills. Thornton says, “As is frequently the case in science, there was a degree of serendipity – right time, right place, right idea.” The group’s test involves radioactively labeling antibodies to the fungus in vivo, then using a combination of positron emission tomography (PET) and magnetic resonance (MR) imaging to visualize the infection (1). So far, the technique has shown good results in mice (see Figure 1). “The next step is to adapt the technology for detection of human invasive pulmonary aspergillosis. To this end, we have ‘humanized’ the antibody tracer and are currently working through the regulatory framework to allow us to conduct human clinical trials in two years’ time.”

Figure 1. Infection of a mouse lung by the fungus Aspergillus fumigatus is shown by radioactively labeled (light-colored) areas (left). By contrast, infection with the bacterium Yersinia enterocolitica does not show any accumulation of the Aspergillus-specific radioactive marker (right).

Aspergillosis isn’t the end of the road for the test, either. By applying the right antibodies, it can be used to detect bacteria, viruses and even cancer cells. “At present, cancers are visualized using the radiopharmaceutical fludeoxyglucose (18F),” explains Thornton. “However, we have shown that 18F is not appropriate for infectious disease detection, as it can’t discriminate between different types of pathogen, or between pathogens and general inflammation of the lung. By using our antibody-guided PET/MR imaging approach, diseases caused by fungi, bacteria and viruses will be detected and differentiated with a much higher degree of accuracy than is currently possible.” Not only that, but they can be detected rapidly using tools already available in most hospitals – meaning that hopefully, patients will receive the right treatment faster. MS

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References

  1. AM Rolle et al., “ImmunoPET/MR imaging allows specific detection of Aspergillus fumigatus lung infection in vivo”, Proc Natl Acad Sci USA, [Epub ahead of print] (2016). PMID: 26787852.

About the Author(s)

Michael Schubert

While obtaining degrees in biology from the University of Alberta and biochemistry from Penn State College of Medicine, I worked as a freelance science and medical writer. I was able to hone my skills in research, presentation and scientific writing by assembling grants and journal articles, speaking at international conferences, and consulting on topics ranging from medical education to comic book science. As much as I’ve enjoyed designing new bacteria and plausible superheroes, though, I’m more pleased than ever to be at Texere, using my writing and editing skills to create great content for a professional audience.

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