This curriculum vitae summarizes Nicola Amoroso's education and professional experience. He holds a PhD in Physics from 2014 with a thesis on quantitative MRI analysis in Alzheimer's disease. His postdoctoral research has focused on developing cloud computing solutions to support neuroimaging data analysis. He has published over 10 papers in peer-reviewed journals on topics including hippocampal segmentation, machine learning applications for brain disease detection, and complex network analysis of neuroimaging data.
Semantic Web for Health Care and Biomedical InformaticsAmit Sheth
Amit Sheth, "Semantic Web for Health Care and Biomedical Informatics," Keynote at NSF Biomed Web Workshop, Corbett, Oregon, December 4-5, 2007.
http://www.biomedweb.info/2007/
Federated Learning (FL) is a learning paradigm that enables collaborative learning without centralizing datasets. In this webinar, NVIDIA present the concept of FL and discuss how it can help overcome some of the barriers seen in the development of AI-based solutions for pharma, genomics and healthcare. Following the presentation, the panel debate on other elements that could drive the adoption of digital approaches more widely and help answer currently intractable science and business questions.
Semantics for Bioinformatics: What, Why and How of Search, Integration and An...Amit Sheth
Amit Sheth's Keynote at Semantic Web Technologies for Science and Engineering Workshop (held in conjunction with ISWC2003), Sanibel Island, FL, October 20, 2003.
Semantic Web for Health Care and Biomedical InformaticsAmit Sheth
Amit Sheth, "Semantic Web for Health Care and Biomedical Informatics," Keynote at NSF Biomed Web Workshop, Corbett, Oregon, December 4-5, 2007.
http://www.biomedweb.info/2007/
Federated Learning (FL) is a learning paradigm that enables collaborative learning without centralizing datasets. In this webinar, NVIDIA present the concept of FL and discuss how it can help overcome some of the barriers seen in the development of AI-based solutions for pharma, genomics and healthcare. Following the presentation, the panel debate on other elements that could drive the adoption of digital approaches more widely and help answer currently intractable science and business questions.
Semantics for Bioinformatics: What, Why and How of Search, Integration and An...Amit Sheth
Amit Sheth's Keynote at Semantic Web Technologies for Science and Engineering Workshop (held in conjunction with ISWC2003), Sanibel Island, FL, October 20, 2003.
The Amazing Ways Artificial Intelligence Is Transforming Genomics and Gene Ed...Bernard Marr
It is predicted that artificial intelligence (AI) will transform many aspects of our life including healthcare and genomics. AI and machine learning have helped us to understand the genome of organisms and will potentially change the way we treat disease, determine effective drugs and edit genes.
Semantic Web for 360-degree Health: State-of-the-Art & Vision for Better Inte...Amit Sheth
Ora Lassila and Amit Sheth, "Semantic Web for 360-degree Health: State-of-the-Art & Vision for Better Interoperability", Invited Talk at ONC-HHS Invitational Workshop on Next Generation Interoperability for Health, Washington DC, January 19-20, 2011.
This talk will cover various medical applications of deep learning including tumor segmentation in histology slides, MRI, CT, and X-Ray data. Also, more complicated tasks such as cell counting where the challenge is to count how many objects are in an image. It will also cover generative adversarial networks and how they can be used for medical applications. This presentation is accessible to non-doctors and non-computer scientists.
Abstract: http://j.mp/1MhWWei
Healthcare applications now have the ability to exploit big data in all its complexity. A crucial challenge is to achieve interoperability or integration so that a variety of content from diverse physical (IoT)- cyber (web-based)- and social sources, with diverse formats and modality (text, image, video), can be used in analysis, insight, and decision-making. At Kno.e.sis, an Ohio Center of Excellence in BioHealth Innovation, we have a variety of large, collaborative healthcare/clinical/biomedical projects, all involving domain experts and end-users, and access to real world data that include: clinical/EMR data (of individual patients and that related to public health), data from a variety of sensors (IoT) on and around patients measuring real-time physiological and environmental observations), social data (Twitter, Web forums, PatientsLikeMe), Web search logs, etc. Key projects include: Prescription drug abuse online-surveillance and epidemiology (PREDOSE), Social media analysis to monitor cannabis and synthetic cannabinoid use (eDrugTrends), Modeling Social Behavior for Healthcare Utilization in Depression, Medical Information Decision Assistant and Support (MIDAS) with application to musculoskeletal issues, kHealth: A Semantic Approach to Proactive, Personalized Asthma Management Using Multimodal Sensing (also for Dementia), and Cardiology Semantic Analysis System (with applications to Computer Assisted Coding and Computerized Document Improvement).
This talk will review how ontologies or knowledge graphs play a central role in supporting semantic filtering, interoperability and integration (including the issues such as disambiguation), reasoning and decision-making in all our health-centric research and applications. Additional relevant information is at the speaker’s HCLS page. http://knoesis.org/amit/hcls
This workshop is a hands-on introduction to machine learning with R and was presented on December 8, 2017 at the University of South Carolina for the 2017 Computational Biology Symposium held by the International Society for Computational Biology Regional Student Group-Southeast USA.
With the explosion of interest in both enhanced knowledge management and open science, the past few years have seen considerable discussion about making scientific data “FAIR” — findable, accessible, interoperable, and reusable. The problem is that most scientific datasets are not FAIR. When left to their own devices, scientists do an absolutely terrible job creating the metadata that describe the experimental datasets that make their way in online repositories. The lack of standardization makes it extremely difficult for other investigators to locate relevant datasets, to re-analyse them, and to integrate those datasets with other data. The Center for Expanded Data Annotation and Retrieval (CEDAR) has the goal of enhancing the authoring of experimental metadata to make online datasets more useful to the scientific community. The CEDAR work bench for metadata management will be presented in this webinar. CEDAR illustrates the importance of semantic technology to driving open science. It also demonstrates a means for simplifying access to scientific data sets and enhancing the reuse of the data to drive new discoveries.
This Slide was collected from a seminar "Machine Learning for Data Mining" which was arranged in Daffodil International University.The Chief Guest was Dr. Dewan Md. Farid. He made this wonderful Slide for described to us about Data Mining. He also shared his research experience which was just amazing.Totally unpredictable speech it was from Dr. Dewan Md. Farid Sir. He is one of the famous researcher.I hope , you will enjoy this slide. Details about Dr. Dewan Md. Farid sir is given below in this link
https://ai.vub.ac.be/members/dewan-md-farid
Prospects of Deep Learning in Medical ImagingGodswll Egegwu
A SEMINAR Presentation on the Prospects of Deep Learning in Medical Imaging Presented to the Department of Computer Science, Nasarawa State Polytechnic, Lafia.
BY:
EGEGWU, GODSWILL
08166643792
http://facebook.com/godswill.egegwu
http://egegwugodswill.name.ng
Supervised Multi Attribute Gene Manipulation For Cancerpaperpublications3
Abstract: Data mining, the extraction of hidden predictive information from large databases, is a powerful new technology with great potential to help companies focus on the most important information in their data warehouses. Data mining tools predict future trends and behaviours, allowing businesses to make proactive, knowledge-driven decisions. The automated, prospective analyses offered by data mining move beyond the analyses of past events provided by retrospective tools typical of decision support systems.
They scour databases for hidden patterns, finding predictive information that experts may miss because it lies outside their expectations. Data mining techniques are the result of a long process of research and product development. This evolution began when business data was first stored on computers, continued with improvements in data access, and more recently, generated technologies that allow users to navigate through their data in real time. Data mining takes this evolutionary process beyond retrospective data access and navigation to prospective and proactive information delivery.
The Amazing Ways Artificial Intelligence Is Transforming Genomics and Gene Ed...Bernard Marr
It is predicted that artificial intelligence (AI) will transform many aspects of our life including healthcare and genomics. AI and machine learning have helped us to understand the genome of organisms and will potentially change the way we treat disease, determine effective drugs and edit genes.
Semantic Web for 360-degree Health: State-of-the-Art & Vision for Better Inte...Amit Sheth
Ora Lassila and Amit Sheth, "Semantic Web for 360-degree Health: State-of-the-Art & Vision for Better Interoperability", Invited Talk at ONC-HHS Invitational Workshop on Next Generation Interoperability for Health, Washington DC, January 19-20, 2011.
This talk will cover various medical applications of deep learning including tumor segmentation in histology slides, MRI, CT, and X-Ray data. Also, more complicated tasks such as cell counting where the challenge is to count how many objects are in an image. It will also cover generative adversarial networks and how they can be used for medical applications. This presentation is accessible to non-doctors and non-computer scientists.
Abstract: http://j.mp/1MhWWei
Healthcare applications now have the ability to exploit big data in all its complexity. A crucial challenge is to achieve interoperability or integration so that a variety of content from diverse physical (IoT)- cyber (web-based)- and social sources, with diverse formats and modality (text, image, video), can be used in analysis, insight, and decision-making. At Kno.e.sis, an Ohio Center of Excellence in BioHealth Innovation, we have a variety of large, collaborative healthcare/clinical/biomedical projects, all involving domain experts and end-users, and access to real world data that include: clinical/EMR data (of individual patients and that related to public health), data from a variety of sensors (IoT) on and around patients measuring real-time physiological and environmental observations), social data (Twitter, Web forums, PatientsLikeMe), Web search logs, etc. Key projects include: Prescription drug abuse online-surveillance and epidemiology (PREDOSE), Social media analysis to monitor cannabis and synthetic cannabinoid use (eDrugTrends), Modeling Social Behavior for Healthcare Utilization in Depression, Medical Information Decision Assistant and Support (MIDAS) with application to musculoskeletal issues, kHealth: A Semantic Approach to Proactive, Personalized Asthma Management Using Multimodal Sensing (also for Dementia), and Cardiology Semantic Analysis System (with applications to Computer Assisted Coding and Computerized Document Improvement).
This talk will review how ontologies or knowledge graphs play a central role in supporting semantic filtering, interoperability and integration (including the issues such as disambiguation), reasoning and decision-making in all our health-centric research and applications. Additional relevant information is at the speaker’s HCLS page. http://knoesis.org/amit/hcls
This workshop is a hands-on introduction to machine learning with R and was presented on December 8, 2017 at the University of South Carolina for the 2017 Computational Biology Symposium held by the International Society for Computational Biology Regional Student Group-Southeast USA.
With the explosion of interest in both enhanced knowledge management and open science, the past few years have seen considerable discussion about making scientific data “FAIR” — findable, accessible, interoperable, and reusable. The problem is that most scientific datasets are not FAIR. When left to their own devices, scientists do an absolutely terrible job creating the metadata that describe the experimental datasets that make their way in online repositories. The lack of standardization makes it extremely difficult for other investigators to locate relevant datasets, to re-analyse them, and to integrate those datasets with other data. The Center for Expanded Data Annotation and Retrieval (CEDAR) has the goal of enhancing the authoring of experimental metadata to make online datasets more useful to the scientific community. The CEDAR work bench for metadata management will be presented in this webinar. CEDAR illustrates the importance of semantic technology to driving open science. It also demonstrates a means for simplifying access to scientific data sets and enhancing the reuse of the data to drive new discoveries.
This Slide was collected from a seminar "Machine Learning for Data Mining" which was arranged in Daffodil International University.The Chief Guest was Dr. Dewan Md. Farid. He made this wonderful Slide for described to us about Data Mining. He also shared his research experience which was just amazing.Totally unpredictable speech it was from Dr. Dewan Md. Farid Sir. He is one of the famous researcher.I hope , you will enjoy this slide. Details about Dr. Dewan Md. Farid sir is given below in this link
https://ai.vub.ac.be/members/dewan-md-farid
Prospects of Deep Learning in Medical ImagingGodswll Egegwu
A SEMINAR Presentation on the Prospects of Deep Learning in Medical Imaging Presented to the Department of Computer Science, Nasarawa State Polytechnic, Lafia.
BY:
EGEGWU, GODSWILL
08166643792
http://facebook.com/godswill.egegwu
http://egegwugodswill.name.ng
Supervised Multi Attribute Gene Manipulation For Cancerpaperpublications3
Abstract: Data mining, the extraction of hidden predictive information from large databases, is a powerful new technology with great potential to help companies focus on the most important information in their data warehouses. Data mining tools predict future trends and behaviours, allowing businesses to make proactive, knowledge-driven decisions. The automated, prospective analyses offered by data mining move beyond the analyses of past events provided by retrospective tools typical of decision support systems.
They scour databases for hidden patterns, finding predictive information that experts may miss because it lies outside their expectations. Data mining techniques are the result of a long process of research and product development. This evolution began when business data was first stored on computers, continued with improvements in data access, and more recently, generated technologies that allow users to navigate through their data in real time. Data mining takes this evolutionary process beyond retrospective data access and navigation to prospective and proactive information delivery.
Topic:
Effective Visualizations that will aid in minimizing the spread of infectious diseases
Group members:
Lamar Munoz, Michael Brockenbrough, Neisha Sadhnani
Genome-wide transcription profiling is a powerful technique in studying disease susceptible footprints. Moreover, when applied to disease tissue it may reveal quantitative and qualitative alterations in gene expression that give information on the context or underlying basis for the disease and may provide a new diagnostic approach. However, the data obtained from high-density microarrays is highly complex and poses considerable challenges in data mining. Past researches prove that neuro diseases damage the brain network interaction, protein- protein interaction and gene-gene interaction. A number of neurological research paper also analyze the relationship among damaged part. Analysis of gene-gene interaction network drawn by using state-of-the-art gene database of Alzheimer’s patient can conclude a lot of information. In this paper we used gene dataset affected with Alzheimer’s disease and normal patient’s dataset from NCBI databank. After proper processing the .CEL affymetrix data using RMA, we use the processed data to find gene interaction outputs. Then we filter the output files using probe set filtering attributes p-value and fold count and draw a gene-gene interaction network. Then we analyze the interaction network using GeneMania software.
ABSTRACT
Genome-wide transcription profiling is a powerful technique in studying disease susceptible footprints. Moreover, when applied to disease tissue it may reveal quantitative and qualitative alterations in gene expression that give information on the context or underlying basis for the disease and may provide a new diagnostic approach. However, the data obtained from high-density microarrays is highly complex and poses considerable challenges in data mining. Past researches prove that neuro diseases damage the brain network interaction, protein- protein interaction and gene-gene interaction. A number of neurological research paper also analyze the relationship among damaged part. Analysis of gene-gene interaction network drawn by using state-of-the-art gene database of Alzheimer’s patient can conclude a lot of information. In this paper we used gene dataset affected with Alzheimer’s disease and normal patient’s dataset from NCBI databank. After proper processing the .CEL affymetrix data using RMA, we use the processed data to find gene interaction outputs. Then we filter the output files using probe set filtering attributes p-value and fold count and draw a gene-gene interaction network. Then we analyze the interaction network using GeneMania software.
(I’ll GO OVER STEP BY STEP IN CLASS TOMORROW)Part OneP.docxgertrudebellgrove
(I’ll GO OVER STEP BY STEP IN CLASS TOMORROW)
Part One
Portfolio Critique Using Morningstar.com
Morningstar, Inc. is a leading provider of independent investment research in the United States and in major international markets and offers an extensive line of Internet, software, and print-based products for individual investors, financial advisors, and institutional clients. Morningstar is a trusted source for insightful information on stocks, mutual funds, variable annuities, closed-end funds, exchange-traded funds, separate accounts, hedge funds, and 529 college savings plans.
1. Go to www.morningstar.com. Sign up for Premium Membership. You will be able to receive a 14-day free trial. Browse the site to become familiar with everything Morningstar has to offer. Be prepared to participate in classroom discussion and bring your questions if you have any.
2. Go to X-Ray and print the page. Write a portfolio critique.
Part Two
Use the daily data on the portfolio returns and the market returns (e.g., the S&P 500 index) to estimate a single-index market model. Your analysis should include
(Morningstar automatically will calculate)
1. Standard deviation for each portfolio.
1. Covariance between the rates of return of portfolio and S&P500.
1. The correlation coefficient between each portfolio and S&P500.
1. Run a regression of each portfolio against the market return and find:\
(In fact Morningstar will automatically calculate)
0. Alpha for each portfolio.
0. Beta for each portfolio.
0. What is the systematic and nonsystematic risk of the each security?
0. Sharpe Ratio of portfolios
1. Plot the risk and return of each portfolio and draw the efficient frontiers.
1. Identify which portfolio dominates on the efficient frontier.
1. For which portfolio had an average return in excess of that predicated by the CAPM?
Essay Portion Study Guide
Psych 120, Spring 2019
1. What are aphantasia (and hyperphantasia), and why are they interesting to conceptualization researchers? What sort of information have we already discovered through studying aphantasia? Discuss TWO experiments we covered in class that could be re-examined in an aphantasic population, and why they would contribute to a greater understanding of cognition.
2. How do we recognize and categorize objects? Trace the processes involved with object recognition and categorization, discussing all possibilities covered for how we can do this. Lastly, provide TWO pieces of evidence in support of those various possibilities.
3. What is the dual visual system theory and what does it have to do with consciousness and cognition? Provide TWO pieces of evidence (neurological or behavioral) supporting the dual visual system theory. Next, discuss how those same TWO pieces of evidence might actually not support the dual visual system theory.
4. How do video games impact cognition? Are all video games equal in their benefits or detriments to various cognitive activities? Provide TWO pieces of evi ...
International Journal of Engineering and Science Invention (IJESI) is an international journal intended for professionals and researchers in all fields of computer science and electronics. IJESI publishes research articles and reviews within the whole field Engineering Science and Technology, new teaching methods, assessment, validation and the impact of new technologies and it will continue to provide information on the latest trends and developments in this ever-expanding subject. The publications of papers are selected through double peer reviewed to ensure originality, relevance, and readability. The articles published in our journal can be accessed online.
Important Aspects of Digital Pathology- A Focus on Whole Slide Imaging/Tissue...The Lifesciences Magazine
Applications of Digital Pathology, WSI, and Tissue Image Analysis: 1. Clinical Diagnostics 2. Medical Education 3. Research and Drug Development 4. Telepathology
Gears are the most essential and commonly utilised power transmission components. It is really essential to operate machines involving different weights and speeds. When a load is increased beyond a certain limit, gear teeth frequently fail. Composite materials, in comparison to other metallic gears, offer significantly better mechanical qualities, such as a higher strength-to-weight ratio, increased hardness, and hence a lower risk of failure. Al6063 and SiC were employed to build a metal matrix composite for spur gear production in this work.
Sound plays a crucial part in every element of human life. Sound is a crucial component in the development of automated systems in a variety of domains, from personal security to essential monitoring. There are a few systems on the market now, but their efficiency is a worry for their use in real-world circumstances. Image classification and feature classification are the same as sound classification, just like other classification algorithms like machine learning.
Heaviness has been related to stroke, depression, and cancer are some of the most serious dangers to human existence. Heart disease, stroke, obesity, and type II diabetes are all disorders that have an impact on our way of life. Using data mining and machine learning approaches to forecast disease based on patient treatment history and health data has been a battle for decades.
ARTIFICIAL NEURAL NETWORKS FOR MEDICAL DIAGNOSIS: A REVIEW OF RECENT TRENDSIJCSES Journal
Artificial Intelligence systems (especially computer-aided diagnosis and artificial neural networks) are increasingly finding many uses in medical diagnosis application in recent times. These methods are adaptive learning algorithms that are capable of handling multiple and heterogeneous types of clinical
data with a view of integrating them into categorized outputs. In this study, we briefly review and discuss the concept, capabilities, and applicability of artificial neural network techniques to medical diagnosis, through consideration of some selected physical and mental diseases. The study focuses on scholarly researches within the years, 2010 to 2019. Findings show that no electronic online clinical database exists in Nigeria and the Sub-Saharan countries, most review researches in this area focused mainly on physical diseases without considering mental illnesses, the application of ANN in mental and comorbid disorders have not been thoroughly studied, ANN models and algorithms consider mainly homogeneous input data sources and not heterogeneous input data sources, and ANN models on multi-objective output systems are few as compared to single output ANN models.
ARTIFICIAL NEURAL NETWORKS FOR MEDICAL DIAGNOSIS: A REVIEW OF RECENT TRENDS
Curriculum_Amoroso_EN_28_07_2016
1. Curriculum Vitae et studiorum
Nicola Amoroso
address: Via dell'ecologia 8, 76011, Bisceglie (BT), Italy
cell: +39 331 5856943
tel: +39 080 3958683
email: nicola.amoroso@ba.infn.it
skype contact: nic.amoroso
Birth date: 04 Maggio 1980
Instruction
26/05/2014 PhD in Physics with the thesis Quantitative MRI analysis in Alzheimer's Disease
21/07/2010 M.Sc. (Physics) 110/110 cum laude with the thesis An econophysics approach for
the determination of the regulatory capital for the operative risk.
Academic Experience
17/06/2016 – ongoing Post-doc position for the Study, development and test of complex
network solutions according to the cloud computing paradigm to support neuroimaging data
analyses.
16/06/2015 – 16/06/2016 Post-doc position for the Study, development and test of complex
network solutions according to the cloud computing paradigm to support neuroimaging data
analyses.
17/03/2014 – 17/03/2015 Post-doc position for the Study, development and test of computing
solutions and data storage according to the cloud computing paradigm to support biomedical data
analyses.
Didactics experiences
2014 – 2015 Professor for the course General Physics II (Electromagnetic interactions of current
and charges) at (DICATECH) – Politecnico degli studi di Bari, Bari (Italy)
2. 2014 Professor of Medical Physics at the IV Egyptian High Energy Physics School at the Ain
Shams University and The British University in Egypt, Cairo (Egypt)
2010 - 2013 Teaching assistant of General Physics I (Mechanics and Thermodynamics) at the
faculty of Pharmacy – Università degli studi di Bari, Bari (Italy).
2003 - 2010 External expert in high-school courses funded by EU National Operative
Programme.
Research experiences
The two main fields of my research experience concern:
1. Neuroimaging: MRI, DWI analyses, image processing and machine learning
applications for pattern recognition
2. Biomedical Data analysis: data mining, statistics, imaging genetics, co-expression
networks, GWAS.
In more details I have gained research experience in the following fields:
Blind validation of predictive algorithms for brain diseases
The international research community has devoted a huge effort to the development and
sharing of robust methodologies for quantitative assessment of brain diseases. In
particular, the lack of an unbiased comparison among different studies and methodology
affects the replicability of results and therefore weakens their scientific contribution.
Accordingly, in recent years a number of international challenges have been promoted to
compare algorithms and methodologies within a common framework. The algorithms
designed and implemented by me, with the invaluable support of all the research team,
reached considerable results and were published on high impact international journals
[P1, P9, C7, C8]1.
Neurodegenerative diseases, design and implementation of quantitative methods for the assessment
and the support to diagnosis
During my PhD and the following years as a post-doc I have been involved in two Italian
collaborations focused on the study of neurodegenerative diseases, specifically
Alzheimer’s disease. Firstly, I developed novel segmentation algorithms for the
hippocampal segmentation and therefore the evaluation of its atrophy rate [P8, P10-P11,
C3-C14]. I adopted machine learning strategies especially based on Random Forests,
Support Vector Machines and Artificial Neural Networks to develop quantitative indexes
to support the diagnosis [P2-P6, P12]. This kind of analysis often require big data
strategies and computational facilities; however, I have always designed my pipelines to
exploit parallel or distributed computations. With this regard, I managed to exploit the
5000 CPUs available in Bari with its RECAS computer cluster. Currently, I am
1 P: regular article publication , C: conference proceeding
3. investigating other unsupervised learning strategies, especially deep learning based to
exploit these huge computational resources. Moreover, I was inspired by recent works on
brain connectivity adopting complex networks. This is why in the last year my research
was almost completely devoted to investigate the applications of complex network
methodologies [P7, C1, C2].
Quantitative methodologies for socio-economic applications
Beyond my research activities (including 26 publications to date, 12 research paper and 14
proceedings) I enthusiastically get involved in research projects related to other fields. In
particular, I collaborated with the United Nations (UN) Department of Economic and
Social Affairs (DESA) for the development and statistical assessment of the e-Government
Development Index (EGDI), a collaboration acknowledged by the UN EGDI Survey 2012
and 2014.
In the following a brief summary of the methodologies and techniques I get used with
during my research activity:
Image Pre-processing: registration for 2D and 3D medical images, wavelet
denoising, Fourier analyses, image enhancement.
Shape Analysis: SPHARM methodologies, Point Distribution Model, applications to
structural MRI.
Hippocampal Segmentation: Pattern recognition, statistical approaches, machine
learning.
Quantitative biomarkers: multivariate analyses, classification indexes and similarity
patterns.
Machine learning for the classification of neurodegnerative diseases. Design and
development of algorithms (see for example international challenge “CAD
dementia” and “Machine Learning” MICCAI 2014).
Design and development of workflows within the Software as a Service paradigm.
MRI structural connectivity: graph theory, complex networks and multi-graphs for
the characterization of brain diseases.
Data mining: data pre-processing (data cleaning, missing data, data
transformation), explorative analysis, multivariate data characterization.
Unsupervised analysis: data reduction (Non negative matrix factorization, Principal
component analysis (PCA), single value decomposition (SVD), factor analysis and
linear discriminant analysis (LDA)), clustering (K-means, linkage).
Data modeling: Complex networks, applications to social-economic systems (e.g.
rating), imaging (segmentation and classification) e medical imaging (graph cuts).
Machine learning: Classification and regression (Random Forests, Support Vector
Machines, Artificial Neural Networks, RUSBoost, Logistic regressions).
Statistical evaluations: hypothesis tests (t-test, Kolmogorov-Smirnov, Wilcoxon,
Fisher, ...)
IT skills
4. All the analyses conducted both during the master degree and the PhD involved the
intensive use of MATLAB, I acquired about 10'000 hours of activity according to which I
can define myself a MATLAB expert. In the last two years I dedicated myself to the use of
R. Besides, I also experienced the use of Mathematica and Python. For imaging analyses, I
mainly used FSL, however I can also use FreeSurfer, SPM, ITK and openCV, the latter
being substantially C++ based. Moreover, I conducted several complex network analyses
with Gephi and NetLogo, even if the tool I adopted the most was the “igraph” R-package.
Finally, I have a solid experience with scripting (Bash) for the exploitation of distributed
infrastructures.
5. Publications
Publications in peer-reviewed international journals (impact factor at acceptance date)
1. Allen G I, AMOROSO N, et al., Crowdsourced estimation of cognitive decline and
resilience in Alzheimer's disease, ALZHEIMER’S & DEMENTIA 12.6 (2016): 645-653 IF
12.407
2. *Pergola G, Trizio S, Di Carlo P, Taurisano P, Mancini M, AMOROSO N, Nettis M
A, Andriola I, Caforio G, Popolizio T, Rampino A, Di Giorgio A, Bertolino A, Blasi
G, Grey Matter Volume Patterns in Thalamic Nuclei are Associated with Familial Risk for
Schizophrenia and with Schizotypy in healthy subjects, SCHIZOPHRENIA RESEARCH
doi:10.1016/j.schres.2016.07.005 IF 3.923
3. Tangaro S, Fanizzi A, AMOROSO N**, Corciulo R, Garuccio E, Gesualdo L, Loizzo
G, Procaccini D A, Vernò L, Bellotti R, Computer Aided Detection System for prediction
of the malaise during hemodialysis, COMPUTATIONAL AND MATHEMATICAL
METHODS IN MEDICINE http:dx.doi.org/10.1155/2016/8748156 (2916) IF 0.887
4. *Chincarini A, Sensi F, Rei L, Gemme G, Squarcia S, Longo R, Brun F, Tangaro S,
Bellotti R, AMOROSO N, Bocchetta M, Redolfi A, Bosco P, Boccardi M, Frisoni G B,
Nobili F, Integrating longitudinal information in hippocampal volume measurements for
the early detection of Alzheimer’s disease, NEUROIMAGE 125: 834-847 (2016) IF 6.357
5. AMOROSO N, Errico R, Bruno S, Chincarini A, Garuccio E, Sensi F, Tangaro S,
Tateo A, Bellotti R, Hippocampal Unified Multi-Atlas Network (HUMAN): protocol and
scale validation of a novel segmentation tool, PHYSICS IN MEDICINE AND BIOLOGY
60.22: 8851 (2015) IF 2.761
6. Inglese P, AMOROSO N, Boccardi M, Bocchetta M, Bruno S, Chincarini A, Errico R,
Frisoni G B, Maglietta R, Redolfi A, Sensi F, Tangaro S, Tateo A Bellotti R, Multiple
RF Classifier for the hippocampus segmentation: method and validation on EADC-ADNI
Harmonized Hippocampal Protocol, PHYSICA MEDICA 31.8: 1085-1091 (2015) IF 2.403
7. Nicotri S, Tinelli E, AMOROSO N, Garuccio E, Bellotti R, Complex networks and
public funding: the case of 2007-2013 Italian program, EPJ DATA SCIENCE 4.1: 1-19
(2015) IF under evaluation
8. Maglietta R AMOROSO N, Boccardi M, Bruno S, Chincarini A, Frisoni G B, Inglese
P, Redolfi A, Tangaro S, Tateo A, Bellotti R, Automated hippocampal segmentation in
3D MRI using random undersampling with boosting algorithm, PATTERN ANALYSIS
and APPLICATIONS 1-13 (2015) IF 0.646
9. E E Bron, M Smits, W M van der Flier, H Vrenken, F Barkhof, P Scheltens, J M
Papma, R M Steketee, C M Orellana, R Meijboom, M Pinto, J R Meireles, C Garrett,
A J Bastos-Leite, A Abdulkadir, O Ronneberger, AMOROSO N, et al., Standardized
evaluation of algorithms for computer-aided diagnosis of dementia based on
structural MRI: the CADDementia challenge. NEUROIMAGE, 111 (2015): 562-579
IF 6.357
10. Tangaro S, AMOROSO N., Brescia M, Cavuoti S, Chincarini A, Errico R, Inglese P,
Longo G, Maglietta R, Tateo A, Riccio G, Bellotti R. Feature Selection based on
Machine Learning in MRIs for Hippocampal Segmentation. COMPUTATIONAL
AND MATHEMATICAL METHODS IN MEDICINE dx.doi.org
/10.1155/2015/814104 (2015) IF 0.887
11. Tangaro S, AMOROSO N**, Boccardi M, Bruno S, Chincarini A, Ferraro G, Frisoni
G B, Maglietta R, Redolfi A, Rei L, Tateo A, Bellotti R (2014). Automated voxel-by-
6. voxel tissue classification for hippocampal segmentation: Methods and Validation.
PHYSICA MEDICA, 30.8: 878-887 (2014) IF 2.403
12. *Chincarini A, Bosco P, Gemme G, Morbelli S, Arnaldi D, Sensi F, Solano I,
AMOROSO N., Tangaro S, Longo R, Squarcia S, Nobili F. Alzheimer’s disease
markers from structural MRI and FDG-PET brain images. THE EUROPEAN
PHYSICAL JOURNAL PLUS, ISSN: 2190-5444 (2013) IF 1.377
* Publication without the participation of PhD supervisor
** Corresponding author
7. Indexed conference proceedings, abstracts and Book chapters
1. Monda A, AMOROSO N**, Altomare Basile M T, Bellotti R, Bertolino A, Blasi G, Di
Carlo P, Fanizzi A, La Rocca M, Maggipinto T, Monaco A, Paplino M, Pergola G,
Tangaro S, A gene-oriented community detection strategy:the DRD2 case study, In NDES
2015: Nonlinear Dynamics of Electronic Systems (in press)
2. La Rocca M, AMOROSO N**, Bellotti R, Diacono D, Monaco A, Monda A, Tateo A,
Tangaro S, A multiplex network model to characterize brain atrophy in structural MRI, In
NDES 2015: Nonlinear Dynamics of Electronic Systems (in press)
3. AMOROSO N, Antonacci M, Bellotti R, Donvito G, Errico R, Maggi G, Monaco A,
Notarangelo P, Tangaro S, Tateo A, Medical Physics Applications in Bari ReCaS Farm
In High Performance Scientific Computing Using Distributed Infrastructures:
Results and scientific applications derived from the Italian PON ReCaS Project
(2016)
4. AMOROSO N, Tangaro S, Errico R, Garuccio E, Monda A, Sensi F, Tateo A, Bellotti
R, An Hippocampal Segmentation Tool Within an Open Cloud Infrastructure, In ICIAP
2015: New Trends in Image Analysis and Processing (2015)
5. AMOROSO N**, Errico R, Ferraro G, Tangaro S, Tateo A, Bellotti R (2014). Fully
automated MRI analysis for brain diseases with high performance computing. In:
SCORE@POLIBA (2014)
6. Tangaro S, AMOROSO N., Chincarini A, Errico R, Frisoni G B, Maglietta R, Tateo
A, Bellotti R (2014). A Novel Approach for Fully Automatic Segmentation of
Hippocampus in MRI: Methods and Validation. In: MILANO 2014 dagli atomi al
cervello (2014)
7. *Sensi F, Rei L, Gemme G, Bosco P, AMOROSO N., Chincarini A. GDI*, a novel tool
for MTL atrophy assessment. In: Proceedings of the Computer-Aided Diagnosis of
Dementia Based on Structural MRI Data, MICCAI 2014., p. 92-101 (2014)
8. AMOROSO N**, Errico R, Bellotti R. PRISMA-CAD: Fully automated method for
Computer-Aided Diagnosis of Dementia based on structural MRI data. In:
Proceedings of the Computer-Aided Diagnosis of Dementia Based on Structural
MRI Data, MICCAI 2014, p. 16-24 (2014)
9. Tangaro S, AMOROSO N, Maglietta R, Errico R, Monaco A, Tateo A, Bellotti R
(2013). A Grid-based MRI segmentation: a comparison between Random Forests
and Neural Networks. In: ISMRM 2014 (International Society for Magnetic
Resonance in Medicine) (2014)
10. *La Neve A, Boero G, Internò S, Pietrafusa N, AmorosoMG, Durante V, Luisi C,
AMOROSO N. Pragmatic long-term open-label study on the effectiveness of
Lacosamide as add-on therapy in refractory partial Eplieptic patients. EPILEPSIA,
ISSN: 1528-1167 (2014) IF 4.571
11. *Cardone C, Liguori G, Troiani T, Nappi A, AMOROSO N., Iaffaioli V R, Romano
C, Botti G, Vitagliano D, Martini G, Napolitano S, Morgillo F, Sforza V, Giunta E, Di
Maio M, De Vita F, Ciardiello F, Martinelli E Expression of AXL receptor and its
ligand GAS6 in colorectal cancer (CRC). ANNALS OF ONCOLOGY, ISSN: 0923-
7534 (2014) IF 7.040
12. Tangaro S, AMOROSO N., Bruno S, Chincarini A, Frisoni G B, Maglietta R, Tateo A,
Bellotti R. Active Learning Machines for Automatic Segmentation of Hippocampus
in MRI. In: ICDM2013 proceedings (2013)
8. 13. Maglietta R, AMOROSO N., Bruno S, Chincarini A, Frisoni G B, Inglese P, Tangaro
S, Tateo A, Bellotti R. Random forest classification for hippocampal segmentation in
3D MR images. In: ICMLA 2013 proceedings (2013)
14. AMOROSO N**, Bellotti R, Bruno S, Chincarini A, Logroscino G, Tangaro S, Tateo
A. Automated Shape Analysis landmarks detection for medical image processing.
In: Proceedings of the International Symposium, CompIMAGE (2012)
Bari, 29/08/2016
Nicola Amoroso
9. Referees (contact details)
1) Prof. Roberto Bellotti, (PhD supervisor)
Affiliations: Bari University, Physics Department (UNIBA)
email: roberto.bellotti@uniba.it
2) Dr. Sabina Tangaro, (Collaboration)
National Institute of Nuclear Physics (INFN - Bari)
email: sonia.tangaro@ba.infn.it
3) Dr. Andrea Chincarini, (Collaboration)
Affiliations: National Institute of Nuclear Physics (INFN - Genova)
email: andrea.chincarini@ge.infn.it
Bari, 28/07/2016
Nicola Amoroso