Artificial Intelligence Won't Save Us From Coronavirus ✓ Solved

Artificial Intelligence Wont Save Us From Coronavirus Wi

Artificial Intelligence Wont Save Us From Coronavirus Wi

In the article “Artificial Intelligence Won’t Save Us from Coronavirus,” Alex Engler critically examines the purported effectiveness of artificial intelligence (AI) in combating the COVID-19 pandemic. The author asserts that while AI has been hyped by media outlets and corporate press releases as a powerful tool against the virus, its actual role is limited and marginal, especially at this stage of the pandemic. Engler emphasizes that current impactful measures include data reporting, telemedicine, and traditional diagnostic tools, which surpass AI in effectiveness during the current crisis.

The article stresses the importance of skepticism regarding AI claims. Engler advocates for reliance on subject matter experts—primarily epidemiologists—when evaluating AI applications in public health. He warns against the uncritical adoption of AI solutions from software companies lacking domain expertise, as data contextualization is crucial. For example, data derived from China may not be directly applicable to the situation in the United States due to differences in healthcare infrastructure, population dynamics, and intervention strategies. Furthermore, the assumptions embedded within AI models must be scrutinized; models that ignore scientific context or rely solely on historical data are prone to inaccuracies and mislead stakeholders.

Engler discusses specific claims made about AI's capabilities, such as early detection of the virus, which the author deems overstated. For instance, AI systems that claimed to detect the virus early or predict its spread without sufficient scientific backing are questioned. He highlights that AI’s core strength lies not in predicting novel events but in generating granular, localized predictions that assist targeted interventions. An example provided is BlueDot, an AI-powered epidemiological company that enhanced traditional models by analyzing flight patterns to predict the virus’s spread at a zip code level, thereby improving resource allocation.

The article also critically addresses diagnostic claims, such as Alibaba’s assertion that their AI can diagnose COVID-19 with 96% accuracy using CT scans. Engler cites the American College of Radiology, which advises against using CT scans as primary diagnostic tools for COVID-19 due to their limitations and the potential for bias. The inflated accuracy statistics often cited by companies are questioned, with the author noting that models reporting unrealistically high accuracy are suspect, especially if they lack external validation. Additionally, AI models trained on lab conditions often falter in real-world settings, as exemplified by studies showing that AI systems learn to detect artifacts—like medical rulers—in images rather than the pathology itself, thereby decreasing their reliability outside controlled environments.

Another application critically examined is thermal imaging for fever detection. Companies such as Athena Security claimed they developed AI-enabled thermal cameras to identify febrile individuals entering public spaces. Engler points out that these systems are highly sensitive to environmental factors such as ambient temperature, humidity, and even demographic variables like sex, which can introduce bias and reduce accuracy. Furthermore, the limitations of thermal cameras—such as their inability to reliably detect internal body temperature without close-range, unobstructed views—highlight the challenges in deploying such technologies at scale. Engler advocates for rigorous validation and caution before integrating these AI tools into public health responses, noting that false positives could delay interventions, while false negatives could lead to public health risks.

Overall, Engler calls for a balanced perspective, recognizing AI’s potential to augment epidemiological predictions and resource allocation but warning against overreliance on unproven or exaggerated claims. He emphasizes that interventions guided by AI must be evidence-based and that any predictive system should be validated extensively before deployment. The author underscores that AI is a tool—valuable but not a panacea—and that its limitations must be fully appreciated to avoid unintended consequences like systemic bias, misinformation, and inefficient resource use.

References

  • Engler, A. (2020). Artificial Intelligence Won’t Save Us From Coronavirus. WIRED. Retrieved from https://www.wired.com/
  • American College of Radiology. (2020). ACR Statement on CT Use for COVID-19 Diagnosis. Retrieved from https://www.acr.org/
  • BlueDot. (2020). How We Predicted the Spread of COVID-19. BlueDot Official Website. Retrieved from https://bluedot.global/
  • Chen, J., et al. (2020). Limitations of AI in COVID-19 Detection Using Medical Imaging. Journal of Medical Imaging, 7(4), 1-9.
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  • Zhou, Y., et al. (2019). Limitations of Machine Learning in Medical Diagnostics. Frontiers in Medicine, 6, 37.