Andrea Loddo

Dr. Andrea Loddo

Department of Mathematics and Computer Science, University of Cagliari, Cagliari, Sardegna, Italy
orcid

Research Focus & Metrics

Academic Career Length

12Years (2015-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 February 2022 in Computers in Biology and Medicine
Verified
Journal Article
Closed access
Andrea LoddoAndrea Loddo
Andrea Loddo
SBSara Buttau
Sara Buttau
Cecilia Di RubertoCecilia Di Ruberto
Cecilia Di Ruberto

27 October 2021 in IEEE Access
Verified
Journal Article
Open access
MBMassimo Bartoletti
Massimo Bartoletti
SLStefano Lande
Stefano Lande
Andrea LoddoAndrea Loddo
Andrea Loddo
LPLivio Pompianu
Livio Pompianu
SSSergio Serusi
Sergio Serusi
Since the inception of Bitcoin in 2009, the market of cryptocurrencies has grown beyond the initial expectations, as witnessed by the thousands of tokenised assets available on the market, whose daily trades amount to dozens of USD billions. The pseudonymity features of these cryptocurrencies have attracted the attention of cybercriminals, who exploit them to carry out potentially untraceable scams. The wide range of cryptocurrency-based scams observed over the last ten years has fostered the research on the analysis of their effects, and the development of techniques to counter them. However, doing research in this field requires addressing several challenges: for instance, although a few data sources about cryptocurrency scams are publicly available, they often contain incomplete or misclassified data. Further, there is no standard taxonomy of scams, which leads to ambiguous and incoherent interpretations of their nature. Indeed, the unavailability of reliable datasets makes it difficult to train effective automatic classifiers that can detect and analyse cryptocurrency scams. In this paper, we perform an extensive review of the scientific literature on cryptocurrency scams, which we systematise according to a novel taxonomy. By collecting and homogenising data from different public sources, we build a uniform dataset of thousands of cryptocurrency scams.We devise an automatic tool that recognises scams and classifies them according to our taxonomy.We assess the effectiveness of our tool through standard performance metrics.We also give an in-depth analysis of the classification results, offering several insights into threat types, from their features to their connection with other types. Finally, we provide a set of guidelines that policymakers could follow to improve user protection against cryptocurrency scams.

1 August 2021 in Computers and Electronics in Agriculture
Verified
Journal Article
Closed access
Andrea LoddoAndrea Loddo
Andrea Loddo
MLMauro Loddo
Mauro Loddo
Cecilia Di RubertoCecilia Di Ruberto
Cecilia Di Ruberto

1 January 2020 in Computers in Biology and Medicine
Verified
Journal Article
Closed access
Cecilia Di RubertoCecilia Di Ruberto
Cecilia Di Ruberto
Andrea LoddoAndrea Loddo
Andrea Loddo
LORENZO PUTZULORENZO PUTZU
LORENZO PUTZU

10 February 2020 in Applied Sciences
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Journal Article
Open access
PDF file
Cecilia Di RubertoCecilia Di Ruberto
Cecilia Di Ruberto
Andrea LoddoAndrea Loddo
Andrea Loddo
GPGiovanni Puglisi
Giovanni Puglisi
In microscopy, laboratory tests make use of cell counters or flow cytometers to perform tests on blood cells, like the complete blood count, rapidly. However, a manual blood smear examination is still needed to verify the counter results and to monitor patients under therapy. Moreover, the manual inspection permits the description of the cells’ appearance, as well as any abnormalities. Unfortunately, manual analysis is long and tedious, and its result can be subjective and error-prone. Nevertheless, using image processing techniques, it is possible to automate the entire workflow, both reducing the operators’ workload and improving the diagnosis results. In this paper, we propose a novel method for recognizing white blood cells from microscopic blood images and classify them as healthy or affected by leukemia. The presented system is tested on public datasets for leukemia detection, the SMC-IDB, the IUMS-IDB, and the ALL-IDB. The results are promising, achieving 100% accuracy for the first two datasets and 99.7% for the ALL-IDB in white cells detection and 94.1% in leukemia classification, outperforming the state-of-the-art.

8 February 2018 in Sensors
Verified
Journal Article
Open access
PDF file
Andrea LoddoAndrea Loddo
Andrea Loddo
Cecilia Di RubertoCecilia Di Ruberto
Cecilia Di Ruberto
MKMichel Kocher
Michel Kocher
Malaria is an epidemic health disease and a rapid, accurate diagnosis is necessary for proper intervention. Generally, pathologists visually examine blood stained slides for malaria diagnosis. Nevertheless, this kind of visual inspection is subjective, error-prone and time-consuming. In order to overcome the issues, numerous methods of automatic malaria diagnosis have been proposed so far. In particular, many researchers have used mathematical morphology as a powerful tool for computer aided malaria detection and classification. Mathematical morphology is not only a theory for the analysis of spatial structures, but also a very powerful technique widely used for image processing purposes and employed successfully in biomedical image analysis, especially in preprocessing and segmentation tasks. Microscopic image analysis and particularly malaria detection and classification can greatly benefit from the use of morphological operators. The aim of this paper is to present a review of recent mathematical morphology based methods for malaria parasite detection and identification in stained blood smears images.