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Maximum Internet Security: a Hackers Guide - Networking - Intrusion Detection
- Maximum Internet Security: A Hackers Guide - Networking - Intrusion Detection Exact Phrase All Words Search Tips Maximum Internet Security: A Hackers Guide Author: Publishing Sams Web Price: $49.99 US Publisher: Sams Featured Author ISBN: 1575212684 Benoît Marchal Publication Date: 6/25/97 Pages: 928 Benoît Marchal Table of Contents runs Pineapplesoft, a Save to MyInformIT consulting company that specializes in Internet applications — Now more than ever, it is imperative that users be able to protect their system particularly e-commerce, from hackers trashing their Web sites or stealing information. Written by a XML, and Java. In 1997, reformed hacker, this comprehensive resource identifies security holes in Ben co-founded the common computer and network systems, allowing system administrators to XML/EDI Group, a think discover faults inherent within their network- and work toward a solution to tank that promotes the use those problems. of XML in e-commerce applications. Table of Contents I Setting the Stage 1 -Why Did I Write This Book? 2 -How This Book Will Help You Featured Book 3 -Hackers and Crackers Sams Teach 4 -Just Who Can Be Hacked, Anyway? Yourself Shell II Understanding the Terrain Programming in 5 -Is Security a Futile Endeavor? 24 Hours 6 -A Brief Primer on TCP/IP 7 -Birth of a Network: The Internet Take control of your 8 -Internet Warfare systems by harnessing the power of the shell. III Tools 9 -Scanners 10 -Password Crackers 11 -Trojans 12 -Sniffers 13 -Techniques to Hide One's Identity 14 -Destructive Devices IV Platforms -
To Provide Adequate Commercial Security
MINIMAL KEY LENGTHS FOR SYMMETRIC CIPHERS TO PROVIDE ADEQUATE COMMERCIAL SECURITY AReport by an AdHoc Groupof Cryptographers andComputerScientists »■■ MattBlaze 1 WhitfieldDiffie2 Ronald L. Rivest3 Bruce Schneier4 Tsutomu Shimomura5 Eric Thompson6 MichaelWiener7 JANUARY 1996 ABSTRACT Encryption plays an essential role in protecting the privacy of electronic information against threats from a variety ofpotential attackers. In so doing, modern cryptography employs a combination ofconventional or symmetric cryptographic systems for encrypting data andpublic key or asymmetric systems for managing the keys used by the symmetric systems. Assessing the strength required of the symmetric cryptographic systems is therefore an essential step in employing cryptography for computer and communication security. Technology readily available today (late 1995) makes brute-force attacks against cryptographic systems considered adequate for the past several years both fast and cheap. General purpose computers can be used, but a much more efficient approach is to employ commercially available Field Programmable Gate Array (FPGA) technology. For attackers prepared to make a higher initial investment, custom-made, special-purpose chips make such calculations much faster and significantly lower the amortized costper solution. As a result, cryptosystems with 40-bit keys offer virtually no protection at this point against brute-force attacks. Even the U.S. Data Encryption Standard with 56-bit keys is increasingly inadequate. As cryptosystems often succumb to "smarter" attacks than brute-force key search, it is also important toremember that the keylengths discussed here are the minimum needed for security against the computational threats considered. Fortunately, the cost of very strong encryption is not significantly greater than that of weak encryption. -
Teaching Adversarial Thinking for Cybersecurity
Journal of The Colloquium for Information System Security Education (CISSE) September 2016 Teaching Adversarial Thinking for Cybersecurity Seth T. Hamman †, ‡ [email protected] Kenneth M. Hopkinson † [email protected] † Air Force Institute of Technology Wright-Patterson AFB, OH 45433 ‡ Cedarville University Cedarville, OH 45314 Abstract - The academic discipline of cybersecurity is still in its formative years. One area in need of improvement is teaching cybersecurity students adversarial thinking—an important academic objective that is typically defined as “the ability to think like a hacker.” Working from this simplistic definition makes framing student learning outcomes difficult, and without proper learning outcomes, it is not possible to create appropriate instructional materials. A better understanding of the concept of adversarial thinking is needed in order to improve this aspect of cybersecurity education. This paper sheds new light on adversarial thinking by exploring it through the lens of Sternberg’s triarchic theory of intelligence. The triarchic theory’s division of the intellect into the analytical, creative, and practical components provides a comprehensive framework for examining the characteristic thought processes of hackers. This exploration produces a novel, multidimensional definition of adversarial thinking that leads immediately to three clearly defined learning outcomes and to some new ideas for teaching adversarial thinking to cybersecurity students. Categories and Subject Descriptors K.3.2 [Computers and Education]: Computer and Information Science Education 1 Journal of The Colloquium for Information System Security Education (CISSE) September 2016 General Terms Computer science education, Curriculum Keywords Adversarial Thinking Definition, Cybersecurity Education, Triarchic Theory of Intelligence 1. INTRODUCTION It is widely acknowledged that teaching adversarial thinking to cybersecurity students is important. -
The Manifestation of Hacker Culture
The Hackers of New York City By Stig-Lennart Sørensen Thesis submitted as part of Cand. Polit degree at the Department of Social Anthropology, Faculty of Social Science, University of Tromsø. May 2003 The Hackers of New York City - List of Illustrations Contents LIST OF ILLUSTRATIONS .................................................................................................. 3 PREFACE ................................................................................................................................. 4 INTRODUCTION....................................................................................................................5 MY INTENTIONS WITH THIS PAPER.............................................................................. 8 PROBLEM POSITIONING.................................................................................................... 8 ENTERING THE FIELD...................................................................................................... 10 ON THE FIELDWORK .............................................................................................................. 10 ON INFORMANTS ................................................................................................................... 12 FIELDWORK AND FILM ISSUES..................................................................................... 13 PRACTICAL CONCERNS:......................................................................................................... 13 ETHICAL CONCERNS: THIN AND THICK CONTEXTUALIZATION -
How Hackers Think: a Mixed Method Study of Mental Models and Cognitive Patterns of High-Tech Wizards
HOW HACKERS THINK: A MIXED METHOD STUDY OF MENTAL MODELS AND COGNITIVE PATTERNS OF HIGH-TECH WIZARDS by TIMOTHY C. SUMMERS Submitted in partial fulfillment of the requirements For the degree of Doctor of Philosophy Dissertation Committee: Kalle Lyytinen, Ph.D., Case Western Reserve University (chair) Mark Turner, Ph.D., Case Western Reserve University Mikko Siponen, Ph.D., University of Jyväskylä James Gaskin, Ph.D., Brigham Young University Weatherhead School of Management Designing Sustainable Systems CASE WESTERN RESERVE UNIVESITY May, 2015 CASE WESTERN RESERVE UNIVERSITY SCHOOL OF GRADUATE STUDIES We hereby approve the thesis/dissertation of Timothy C. Summers candidate for the Doctor of Philosophy degree*. (signed) Kalle Lyytinen (chair of the committee) Mark Turner Mikko Siponen James Gaskin (date) February 17, 2015 *We also certify that written approval has been obtained for any proprietary material contained therein. © Copyright by Timothy C. Summers, 2014 All Rights Reserved Dedication I am honored to dedicate this thesis to my parents, Dr. Gloria D. Frelix and Dr. Timothy Summers, who introduced me to excellence by example and practice. I am especially thankful to my mother for all of her relentless support. Thanks Mom. DISCLAIMER The views expressed in this dissertation are those of the author and do not reflect the official policy or position of the Department of Defense, the United States Government, or Booz Allen Hamilton. Table of Contents List of Tables .................................................................................................................... -
THE DILEMMA for FUTURE COMMUNICATION TECHNOLOGIES: How to CONSTITUTIONALLY DRESS the CRYPTO-GENIE1
THE DILEMMA FOR FUTURE COMMUNICATION TECHNOLOGIES: How TO CONSTITUTIONALLY DRESS THE CRYPTO-GENIE1 Jason Kerben "The proliferation of encryption of technology threat- munication.4 This system of communication has ens the ability of law enforcement and national security officials to protect the nation's citizens against ter- been used throughout history. One of the earliest rorists, as well as organized criminals, drug traffickers known examples of cryptography was used by Ju- 2 and other violent criminals." lius Caesar when he sent military messages to his "If the freedom of the press . [or freedom of speech] armies.5 Most cryptographic system have two perishes, it will not be by sudden death . It will be a 6 long time dying from a debilitating disease caused by a basic functions: encoding and decoding. The en- series of erosive measures, each of which, if examined coding function converts the normal data com- singly, would have a great deal to be said for it."3 monly known as "plaintext" into incompre- The preceding two statements epitomize the hensible data commonly known as "ciphertext."7 enduring struggle that has pitted the law enforce- The decoding function reverses the process, by ment community against those who are con- changing the "ciphertext" back into "plaintext." cerned with protecting their privacy interests. In order to perform these functions, a sequence The expanded use of advanced technologies in of bits, or "keys" must be obtained by the sender communications has propelled the cryptography and receiver of each message.9 The strength of debate into the spotlight. the coded communication is greatly dependent Cryptography uses codes to create secret com- upon the length of the key.' 0 This system is an I The term "crypto-genie" was apparently first used by au- metric cryptography is for an individual to choose two secret thor Steven Levy in 1994. -
Evolution of Cyber Security Invotra
Evolution of cyber security Invotra Digital Workplace, Intranet and Extranet 700 bc Scytale used by Greece and Rome to send messages And kids ever since.. Image Source: https://commons.wikimedia.org/wiki/File:Skytale.png 1467 Alberti Cipher was impossible to break without knowledge of the method. This was because the frequency distribution of the letters was masked and frequency analysis - the only known technique for attacking ciphers at that time was no help. Image Source: https://commons.wikimedia.org/wiki/File:Alberti_cipher_disk.JPG 1797 The Jefferson disk, or wheel cypher as Thomas Jefferson named it, also known as the Bazeries Cylinder. It is a cipher system using a set of wheels or disks, each with the 26 letters of the alphabet arranged around their edge. Image Source: https://en.wikipedia.org/wiki/Jefferson_disk#/media/File:Jefferson%27s_disk_cipher.jpg 1833 Augusta Ada King-Noel, Countess of Lovelace was an English mathematician and writer, chiefly known for her work on Charles Babbage's proposed mechanical general-purpose computer, the Analytical Engine. She is widely seen as the world's first programmer Image Source: https://commons.wikimedia.org/wiki/File:Ada_Lovelace_portrait.jpg 1903 Magician and inventor Nevil Maskelyne interrupted John Ambrose Fleming's public demonstration of Marconi's purportedly secure wireless telegraphy technology. He sent insulting Morse code messages through the auditorium's projector. Image Source: https://en.wikipedia.org/wiki/Nevil_Maskelyne_(magician)#/media/File:Nevil_Maskelyne_circa_190 3.jpg 1918 The Enigma Machine. It was developed by Arthur Scherbius in 1918 and adopted by the German government and the nazi party Image Source: https://commons.wikimedia.org/wiki/File:Kriegsmarine_Enigma.png 1932 Polish cryptologists Marian Rejewski, Henryk Zygalski and Jerzy Różycki broke the Enigma machine code. -
Computer Programming and Cyber Security for Beginners
Computer Programming and Cyber Security for Beginners This Book Includes : Python Machine Learning , SQL , Linux , Hacking with Kali Linux , Ethical Hacking . Coding and Cybersecurity Fundamentals Zach Codings Download the Audio Book Version of This Book for FREE If you love listening to audio books on-the-go, I have great news for you. You can download the audio book version of this book for FREE just by signing up for a FREE 30-day audible trial! See below for more details! Audible Trial Benefits As an audible customer, you will receive the below benefits with your 30- day free trial: FREE audible book copy of this book After the trial, you will get 1 credit each month to use on any audiobook Your credits automatically roll over to the next month if you don’t use them Choose from Audible’s 200,000 + titles Listen anywhere with the Audible app across multiple devices Make easy, no-hassle exchanges of any audiobook you don’t love Keep your audiobooks forever, even if you cancel your membership And much more Click the links below to get started! For Audible US For Audible UK For Audible FR For Audible DE © Copyright 2019 by Zach Codings All rights reserved. The content contained within this book may not be reproduced, duplicated or transmitted without direct written permission from the author or the publisher. Under no circumstances will any blame or legal responsibility be held against the publisher, or author, for any damages, reparation, or monetary loss due to the information contained within this book, either directly or indirectly. -
Notes on Theoretical Limitations and Practical Vulnerabilities of Internet Surveillance Capture
University of Pennsylvania ScholarlyCommons Technical Reports (CIS) Department of Computer & Information Science 9-10-2010 Notes on Theoretical Limitations and Practical Vulnerabilities of Internet Surveillance Capture Eric C. Cronin University of Pennsylvania Matthew A. Blaze University of Pennsylvania, [email protected] Follow this and additional works at: https://repository.upenn.edu/cis_reports Recommended Citation Eric C. Cronin and Matthew A. Blaze, "Notes on Theoretical Limitations and Practical Vulnerabilities of Internet Surveillance Capture", . September 2010. University of Pennsylvania Department of Computer and Information Science Technical Report No. MS-CIS-10-29. This paper is posted at ScholarlyCommons. https://repository.upenn.edu/cis_reports/939 For more information, please contact [email protected]. Notes on Theoretical Limitations and Practical Vulnerabilities of Internet Surveillance Capture Abstract Surveillance of Internet communications is increasingly common. As a greater and greater percentage of communication occurs over the Internet, the desire by law enforcement, intelligence agencies, criminals, and others to access these communications grows. In recent years, motivated by updated legislation, we have seen the first large-scale systems for intercepting Internet communications deployed, and there is increasing pressure for more such systems to be developed and put to use. Such systems raise a number of obvious questions for the security research community. Unfortunately, nearly all the systems that have been developed are closed and proprietary, and their inner workings closely guarded for commercial and “security” reasons. Very little research exists in the open academic literature exploring the technical aspects of Internet surveillance, and (to our knowledge) none which focuses on security or reliability. In this work we examine one specific problem, that of performing reliable capture of Internet communications. -
Violent Python
Violent Python A Cookbook for Hackers, Forensic Analysts, Penetration Testers and Security Engineers Violent Python A Cookbook for Hackers, Forensic Analysts, Penetration Testers and Security Engineers TJ. O’Connor !-34%2$!-s"/34/.s(%)$%,"%2's,/.$/. .%79/2+s/8&/2$s0!2)3s3!.$)%'/ 3!.&2!.#)3#/s3).'!0/2%s39$.%9s4/+9/ 3YNGRESSISAN)MPRINTOF%LSEVIER Acquiring Editor: Chris Katsaropoulos Development Editor: Meagan White Project Manager: Priya Kumaraguruparan Designer: Russell Purdy Syngress is an imprint of Elsevier 225 Wyman Street, Waltham, MA 02451, USA Copyright © 2013 Elsevier, Inc. All rights reserved. No part of this publication may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopying, recording, or any information storage and retrieval system, without permission in writing from the publisher. Details on how to seek permission, further information about the Publisher’s permissions policies and our arrange- ments with organizations such as the Copyright Clearance Center and the Copyright Licensing Agency, can be found at our website: www.elsevier.com/permissions. This book and the individual contributions contained in it are protected under copyright by the Publisher (other than as may be noted herein). Notices Knowledge and best practice in this !eld are constantly changing. As new research and experi- ence broaden our understanding, changes in research methods or professional practices, may become necessary. Practitioners and researchers must always rely on their own experience and knowledge in evaluating and using any information or methods described herein. In using such information or methods they should be mindful of their own safety and the safety of others, including parties for whom they have a professional responsibility. -
Minimal Key Lengths for Symmetric Ciphers to Provide Adequate
Minimal Key Lengths for Symmetric Ciphers to Provide Adequate Commercial Security A Rep ort by an Ad Ho c Group of Cryptographers and Computer Scientists 1 Matt Blaze 2 Whit eld Die 3 Ronald L. Rivest 4 Bruce Schneier 5 Tsutomu Shimomura 6 Eric Thompson 7 Michael Wiener January 1996 ABSTRACT Encryption plays an essential role in protecting the privacy of electronic information against threats from a variety of p otential attackers. In so doing, mo dern cryptography employs a combi- nation of conventional or symmetric cryptographic systems for encrypting data and public key or asymmetric systems for managing the keys used by the symmetric systems. Assessing the strength required of the symmetric cryptographic systems is therefore an essential step in employing cryp- tography for computer and communication security. Technology readily available to day late 1995 makes brute-force attacks against cryptographic systems considered adequate for the past several years b oth fast and cheap. General purp ose computers can b e used, but a much more ecient approach is to employ commercially available Field Programmable Gate Array FPGA technology. For attackers prepared to make a higher initial investment, custom-made, sp ecial-purp ose chips make such calculations much faster and signi cantly lower the amortized cost p er solution. As a result, cryptosystems with 40-bit keys o er virtually no protection at this p oint against brute-force attacks. Even the U.S. Data Encryption Standard with 56-bit keys is increasingly inadequate. As cryptosystems often succumb to `smarter' attacks than brute-force key search, it is also imp ortant to rememb er that the keylengths discussed here are the minimum needed for security against the computational threats considered. -
Lattice-Gas Automata Fluids on Parallel Supercomputers
Lattice-Gas Automata Fluids on Parallel Supercomputers Jeffrey Yepez US Air Force, Phillips Laboratory, Hanscom Field, Massachusetts Guy P. Seeley Radex Corporation, Bedford, Massachusetts Norman H. Margolus MIT Laboratory for Computer Science, Cambridge, Massachusetts November 23, 1993 Abstract A condensed history and theoretical development of lattice-gas au- tomata in the Boltzmann limit is presented. This is provided as back- ground to set up the context for understanding the implementation of the lattice-gas method on two parallel supercomputers: the MIT cellu- lar automata machine CAM-8 and the Connection Machine CM-5. The macroscopic limit of two-dimensional fluids is tested by simulating the Rayleigh-B´enard convective instability, Kelvin-Helmholtz shear instabil- ity, and the Von Karman vortex shedding instability. Performance of the two machines in terms of both site update rate and maximum problem size are comparable. The CAM-8, being a low-cost desktop machine, demonstrates the potential of special-purpose digital hardware. Contents 1 Introduction 3 2 Some Historical Notes 5 3 Why lattice-gases? 8 4 Lattice-Gas Automata 9 4.1 Some Preliminaries about the Local Dyanamics .......... 10 4.2 Coarse-Grained Dynamics ...................... 11 4.3 Triangular Lattice: B=6 ....................... 12 4.4 Single Particle Multispeed Fermi-Dirac Distribution Function . 14 4.5 Hexagonal Lattice .......................... 17 1 5 The Cellular Automata Machine CAM-8 19 6 The Connection Machine CM-5 20 7 Gallery of Computational Results 23 7.1 Rayleigh-B´enard Convection on the CAM-8 ............ 23 7.2 Kelvin-Helmholtz Instability on the CAM-8 ............ 24 7.3 Von Karman Streets on the CM-5 ................