Comprehensive Analysis of Data Mining Tools S
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Improving Security Through Egalitarian Binary Recompilation
Improving Security Through Egalitarian Binary Recompilation David Williams-King Submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy under the Executive Committee of the Graduate School of Arts and Sciences COLUMBIA UNIVERSITY 2021 © 2021 David Williams-King All Rights Reserved Abstract Improving Security Through Egalitarian Binary Recompilation David Williams-King In this thesis, we try to bridge the gap between which program transformations are possible at source-level and which are possible at binary-level. While binaries are typically seen as opaque artifacts, our binary recompiler Egalito (ASPLOS 2020) enables users to parse and modify stripped binaries on existing systems. Our technique of binary recompilation is not robust to errors in disassembly, but with an accurate analysis, provides near-zero transformation overhead. We wrote several demonstration security tools with Egalito, including code randomization, control-flow integrity, retpoline insertion, and a fuzzing backend. We also wrote Nibbler (ACSAC 2019, DTRAP 2020), which detects unused code and removes it. Many of these features, including Nibbler, can be combined with other defenses resulting in multiplicatively stronger or more effective hardening. Enabled by our recompiler, an overriding theme of this thesis is our focus on deployable software transformation. Egalito has been tested by collaborators across tens of thousands of Debian programs and libraries. We coined this term egalitarian in the context of binary security. Simply put, an egalitarian analysis or security mechanism is one that can operate on itself (and is usually more deployable as a result). As one demonstration of this idea, we created a strong, deployable defense against code reuse attacks. -
Effect of Distance Measures on Partitional Clustering Algorithms
Sesham Anand et al, / (IJCSIT) International Journal of Computer Science and Information Technologies, Vol. 6 (6) , 2015, 5308-5312 Effect of Distance measures on Partitional Clustering Algorithms using Transportation Data Sesham Anand#1, P Padmanabham*2, A Govardhan#3 #1Dept of CSE,M.V.S.R Engg College, Hyderabad, India *2Director, Bharath Group of Institutions, BIET, Hyderabad, India #3Dept of CSE, SIT, JNTU Hyderabad, India Abstract— Similarity/dissimilarity measures in clustering research of algorithms, with an emphasis on unsupervised algorithms play an important role in grouping data and methods in cluster analysis and outlier detection[1]. High finding out how well the data differ with each other. The performance is achieved by using many data index importance of clustering algorithms in transportation data has structures such as the R*-trees.ELKI is designed to be easy been illustrated in previous research. This paper compares the to extend for researchers in data mining particularly in effect of different distance/similarity measures on a partitional clustering algorithm kmedoid(PAM) using transportation clustering domain. ELKI provides a large collection of dataset. A recently developed data mining open source highly parameterizable algorithms, in order to allow easy software ELKI has been used and results illustrated. and fair evaluation and benchmarking of algorithms[1]. Data mining research usually leads to many algorithms Keywords— clustering, transportation Data, partitional for similar kind of tasks. If a comparison is to be made algorithms, cluster validity, distance measures between these algorithms.In ELKI, data mining algorithms and data management tasks are separated and allow for an I. INTRODUCTION independent evaluation. -
BETULA: Numerically Stable CF-Trees for BIRCH Clustering?
BETULA: Numerically Stable CF-Trees for BIRCH Clustering? Andreas Lang[0000−0003−3212−5548] and Erich Schubert[0000−0001−9143−4880] TU Dortmund University, Dortmund, Germany fandreas.lang,[email protected] Abstract. BIRCH clustering is a widely known approach for clustering, that has influenced much subsequent research and commercial products. The key contribution of BIRCH is the Clustering Feature tree (CF-Tree), which is a compressed representation of the input data. As new data arrives, the tree is eventually rebuilt to increase the compression. After- ward, the leaves of the tree are used for clustering. Because of the data compression, this method is very scalable. The idea has been adopted for example for k-means, data stream, and density-based clustering. Clustering features used by BIRCH are simple summary statistics that can easily be updated with new data: the number of points, the linear sums, and the sum of squared values. Unfortunately, how the sum of squares is then used in BIRCH is prone to catastrophic cancellation. We introduce a replacement cluster feature that does not have this nu- meric problem, that is not much more expensive to maintain, and which makes many computations simpler and hence more efficient. These clus- ter features can also easily be used in other work derived from BIRCH, such as algorithms for streaming data. In the experiments, we demon- strate the numerical problem and compare the performance of the orig- inal algorithm compared to the improved cluster features. 1 Introduction The BIRCH algorithm [23,24,22] is a widely known cluster analysis approach, that won the 2006 SIGMOD Test of Time Award. -
Pipenightdreams Osgcal-Doc Mumudvb Mpg123-Alsa Tbb
pipenightdreams osgcal-doc mumudvb mpg123-alsa tbb-examples libgammu4-dbg gcc-4.1-doc snort-rules-default davical cutmp3 libevolution5.0-cil aspell-am python-gobject-doc openoffice.org-l10n-mn libc6-xen xserver-xorg trophy-data t38modem pioneers-console libnb-platform10-java libgtkglext1-ruby libboost-wave1.39-dev drgenius bfbtester libchromexvmcpro1 isdnutils-xtools ubuntuone-client openoffice.org2-math openoffice.org-l10n-lt lsb-cxx-ia32 kdeartwork-emoticons-kde4 wmpuzzle trafshow python-plplot lx-gdb link-monitor-applet libscm-dev liblog-agent-logger-perl libccrtp-doc libclass-throwable-perl kde-i18n-csb jack-jconv hamradio-menus coinor-libvol-doc msx-emulator bitbake nabi language-pack-gnome-zh libpaperg popularity-contest xracer-tools xfont-nexus opendrim-lmp-baseserver libvorbisfile-ruby liblinebreak-doc libgfcui-2.0-0c2a-dbg libblacs-mpi-dev dict-freedict-spa-eng blender-ogrexml aspell-da x11-apps openoffice.org-l10n-lv openoffice.org-l10n-nl pnmtopng libodbcinstq1 libhsqldb-java-doc libmono-addins-gui0.2-cil sg3-utils linux-backports-modules-alsa-2.6.31-19-generic yorick-yeti-gsl python-pymssql plasma-widget-cpuload mcpp gpsim-lcd cl-csv libhtml-clean-perl asterisk-dbg apt-dater-dbg libgnome-mag1-dev language-pack-gnome-yo python-crypto svn-autoreleasedeb sugar-terminal-activity mii-diag maria-doc libplexus-component-api-java-doc libhugs-hgl-bundled libchipcard-libgwenhywfar47-plugins libghc6-random-dev freefem3d ezmlm cakephp-scripts aspell-ar ara-byte not+sparc openoffice.org-l10n-nn linux-backports-modules-karmic-generic-pae -
NTT Technical Review, December 2012, Vol. 10, No. 12
Feature Articles: Platform Technologies for Open Source Cloud Big Data Jubatus in Action: Report on Realtime Big Data Analysis by Jubatus Keitaro Horikawa, Yuzuru Kitayama, Satoshi Oda, Hiroki Kumazaki, Jungyu Han, Hiroyuki Makino, Masakuni Ishii, Koji Aoya, Min Luo, and Shohei Uchikawa Abstract This article revisits Jubatus, a scalable distributed framework for profound realtime analysis of big data that improves availability and reduces communication overheads among servers by using parallel data processing and by loosely sharing intermediate results. After briefly reviewing Jubatus, it describes the technical challenges and goals that should be resolved and introduces our design concept, open source community activities, achievements to date, and future plans for expanding Jubatus. 1. Introduction There are two major types of big data and tech- niques for analyzing it. There is little doubt that data is of great value and (1) Stockpile type: Lumped high-speed analysis of importance in databases, data mining, and other data- accumulated big data (batch processing) centered applications. With the recent spread of net- (2) Stream type: Sequential high-speed analysis of works, attention is being focused on the large quanti- data stream being continuously generated with- ties of a wide variety of data being generated and out accumulation (realtime processing) transmitted as big data. This trend is accelerating [1] With case (2) in particular, the ambiguity inherent as a result of advances in information and communi- in the environment is creating a growing need to cations technology (ICT), which simplifies the col- make judgments and decisions on the basis of insuf- lection and analysis of big data. -
Research Techniques in Network and Information Technologies, February
Tools to support research M. Antonia Huertas Sánchez PID_00185350 CC-BY-SA • PID_00185350 Tools to support research The texts and images contained in this publication are subject -except where indicated to the contrary- to an Attribution- ShareAlike license (BY-SA) v.3.0 Spain by Creative Commons. This work can be modified, reproduced, distributed and publicly disseminated as long as the author and the source are quoted (FUOC. Fundació per a la Universitat Oberta de Catalunya), and as long as the derived work is subject to the same license as the original material. The full terms of the license can be viewed at http:// creativecommons.org/licenses/by-sa/3.0/es/legalcode.ca CC-BY-SA • PID_00185350 Tools to support research Index Introduction............................................................................................... 5 Objectives..................................................................................................... 6 1. Management........................................................................................ 7 1.1. Databases search engine ............................................................. 7 1.2. Reference and bibliography management tools ......................... 18 1.3. Tools for the management of research projects .......................... 26 2. Data Analysis....................................................................................... 31 2.1. Tools for quantitative analysis and statistics software packages ...................................................................................... -
Machine Learning for Improved Data Analysis of Biological Aerosol Using the WIBS
Atmos. Meas. Tech., 11, 6203–6230, 2018 https://doi.org/10.5194/amt-11-6203-2018 © Author(s) 2018. This work is distributed under the Creative Commons Attribution 4.0 License. Machine learning for improved data analysis of biological aerosol using the WIBS Simon Ruske1, David O. Topping1, Virginia E. Foot2, Andrew P. Morse3, and Martin W. Gallagher1 1Centre of Atmospheric Science, SEES, University of Manchester, Manchester, UK 2Defence, Science and Technology Laboratory, Porton Down, Salisbury, UK 3Department of Geography and Planning, University of Liverpool, Liverpool, UK Correspondence: Simon Ruske ([email protected]) Received: 19 April 2018 – Discussion started: 18 June 2018 Revised: 15 October 2018 – Accepted: 26 October 2018 – Published: 19 November 2018 Abstract. Primary biological aerosol including bacteria, fun- The lowest classification errors were obtained using gra- gal spores and pollen have important implications for public dient boosting, where the misclassification rate was between health and the environment. Such particles may have differ- 4.38 % and 5.42 %. The largest contribution to the error, in ent concentrations of chemical fluorophores and will respond the case of the higher misclassification rate, was the pollen differently in the presence of ultraviolet light, potentially al- samples where 28.5 % of the samples were incorrectly clas- lowing for different types of biological aerosol to be dis- sified as fungal spores. The technique was robust to changes criminated. Development of ultraviolet light induced fluores- in data preparation provided a fluorescent threshold was ap- cence (UV-LIF) instruments such as the Wideband Integrated plied to the data. Bioaerosol Sensor (WIBS) has allowed for size, morphology In the event that laboratory training data are unavailable, and fluorescence measurements to be collected in real-time. -
Principal Component Analysis
02.01.2019 Prncpal component analyss - Wkpeda Principal component analysis Principal component analysis (PCA) is a statistical procedure that uses an orthogonal transformation to convert a set of observations of possibly correlated variables (entities each of which takes on various numerical values) into a set of values of linearly uncorrelated variables called principal components. If there are observations with variables, then the number of distinct principal components is . This transformation is defined in such a way that the first principal component has the largest possible variance (that is, accounts for as much of the variability in the data as possible), and each succeeding component in turn has the highest variance possible under the constraint that it is orthogonal to the preceding components. The resulting vectors (each being a linear combination of the variables and containing n PCA of a multivariate Gaussian observations) are an uncorrelated orthogonal basis set. PCA is sensitive to distribution centered at (1,3) with a the relative scaling of the original variables. standard deviation of 3 in roughly the (0.866, 0.5) direction and of 1 in PCA was invented in 1901 by Karl Pearson,[1] as an analogue of the the orthogonal direction. The principal axis theorem in mechanics; it was later independently developed vectors shown are the eigenvectors of the covariance matrix scaled by and named by Harold Hotelling in the 1930s.[2] Depending on the field of the square root of the corresponding application, it is also named the discrete Karhunen–Loève transform eigenvalue, and shifted so their tails (KLT) in signal processing, the Hotelling transform in multivariate quality are at the mean. -
Outline of Machine Learning
Outline of machine learning The following outline is provided as an overview of and topical guide to machine learning: Machine learning – subfield of computer science[1] (more particularly soft computing) that evolved from the study of pattern recognition and computational learning theory in artificial intelligence.[1] In 1959, Arthur Samuel defined machine learning as a "Field of study that gives computers the ability to learn without being explicitly programmed".[2] Machine learning explores the study and construction of algorithms that can learn from and make predictions on data.[3] Such algorithms operate by building a model from an example training set of input observations in order to make data-driven predictions or decisions expressed as outputs, rather than following strictly static program instructions. Contents What type of thing is machine learning? Branches of machine learning Subfields of machine learning Cross-disciplinary fields involving machine learning Applications of machine learning Machine learning hardware Machine learning tools Machine learning frameworks Machine learning libraries Machine learning algorithms Machine learning methods Dimensionality reduction Ensemble learning Meta learning Reinforcement learning Supervised learning Unsupervised learning Semi-supervised learning Deep learning Other machine learning methods and problems Machine learning research History of machine learning Machine learning projects Machine learning organizations Machine learning conferences and workshops Machine learning publications -
A Study on Adoption of Data Mining Tools and Collision of Predictive Techniques
ISSN(Online): 2319-8753 ISSN (Print): 2347-6710 International Journal of Innovative Research in Science, Engineering and Technology (An ISO 3297: 2007 Certified Organization) Website: www.ijirset.com Vol. 6, Issue 8, August 2017 A Study on Adoption of Data Mining Tools and Collision of Predictive Techniques Lavanya.M1, Dr.B.Jagadhesan2 M.Phil Research Scholar, Dhanraj Baid Jain College (Autonomous), Thoraipakkam, Chennai, India1 Associate Professor, Dhanraj Baid Jain College (Autonomous), Thoraipakkam, Chennai, India2 ABSTRACT: Data mining, also known as knowledge discovery from databases, is a process of mining and analysing enormous amounts of data and extracting information from it. Data mining can quickly answer business questions that would have otherwise consumed a lot of time. Some of its applications include market segmentation – like identifying characteristics of a customer buying a certain product from a certain brand, fraud detection – identifying transaction patterns that could probably result in an online fraud, and market based and trend analysis – what products or services are always purchased together, etc. This article focuses on the various open source options available and their significance in different contexts. KEYWORDS: Data Mining, Clustering, Mining Tools. I. INTRODUCTION The development and application of data mining algorithms requires the use of powerful software tools. As the number of available tools continues to grow, the choice of the most suitable tool becomes increasingly difficult. Some of the common mining tasks are as follows. • Data Cleaning − The noise and inconsistent data is removed. • Data Integration − Multiple data sources are combined. • Data Selection − Data relevant to the analysis task are retrieved from the database. -
A Comparative Study on Various Data Mining Tools for Intrusion Detection
International Journal of Scientific & Engineering Research Volume 9, Issue 5, May-2018 1 ISSN 2229-5518 A Comparative Study on Various Data Mining Tools for Intrusion Detection 1Prithvi Bisht, 2Neeraj Negi, 3Preeti Mishra, 4Pushpanjali Chauhan Department of Computer Science and Engineering Graphic Era University, Dehradun Email: {1prithvisbisht, 2neeraj.negi174, 3dr.preetimishranit, 4pushpanajlichauhan}@gmail.com Abstract—Internet world is expanding day by day and so are the threats related to it. Nowadays, cyber attacks are happening more frequently than a decade before. Intrusion detection is one of the most popular research area which provides various security tools and techniques to detect cyber attacks. There are many ways to detect anomaly in any system but the most flexible and efficient way is through data mining. Data mining tools provide various machine learning algorithms which are helpful for implementing machine- learning based IDS. In this paper, we have done a comparative study of various state of the art data mining tools such as RapidMiner, WEKA, EOA, Scikit-Learn, Shogun, MATLAB, R, TensorFlow, etc for intrusion detection. The specific characteristics of individual tool are discussed along with its pros & cons. These tools can be used to implement data mining based intrusion detection techniques. A preliminary result analysis of three different data-mining tools is carried out using KDD’ 99 attack dataset and results seem to be promising. Keywords: Data mining, Data mining tools, WEKA, RapidMiner, Orange, KNIME, MOA, ELKI, Shogun, R, Scikit-Learn, Matlab —————————— —————————— 1. Introduction These patterns can help in differentiating between regular activity and malicious activity. Machine-learning based IDS We are living in the modern era of Information technology where most of the things have been automated and processed through computers. -
License Information GNU General Public License
################################################################# ################################################################# ####### ####### ####### Open Icon Library ####### ####### License File ####### ####### ####### ################################################################# ################################################################# Table of Contents: * Description * Sources * Licenses * File List * Icons from Wikicommons * Icons under Creative Commons licenses * Icons under GPL and LGPL licenses * Icons under Public Domain * Icons under MIT license * Icons under BSD license * Icons from app-install-data ################################################################# ## Description: The Open Icon Library contains icons from various sources. This file list the license and source of each file in this package. In the rare occasion where there is two files with the same name, you will have to check the developers package. If you wish to use these icons in your project, include this file in your projects documentation. ################################################################# ## Sources: AEM Pictorial Database (aem) link: http://www.aem.org/Technical/PictorialDatabase/index.asp license: PD license link: http://en.wikipedia.org/wiki/Public_domain format: eps -> svg, png subdirectory: open_icon_library-devel/icons/aem app-install-data (app-install) link: http://packages.debian.org/lenny/app-install-data licenses: Various, see docs/AUTHORS_app-install license link: see docs/AUTHORS_app-install format: xpm, svg,