Sleepers of Influence, Chodakiewicz
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Trends Toward Real-Time Network Data Steganography
TRENDS TOWARD REAL-TIME NETWORK DATA STEGANOGRAPHY James Collins, Sos Agaian Department of Electrical and Computer Engineering The University of Texas at San Antonio, San Antonio, Texas, USA [email protected], [email protected] Abstract Network steganography has been a well-known covert data channeling method for over three decades. The basic set of techniques and implementation tools have not changed significantly since their introduction in the early 1980’s. In this paper, we review the predominant methods of classical network steganography, describing the detailed operations and resultant challenges involved in embedding data in the network transport domain. We also consider the various cyber threat vectors of network steganography and point out the major differences between classical network steganography and the widely known end-point multimedia embedding techniques, which focus exclusively on static data modification for data hiding. We then challenge the security community by introducing an entirely new network data hiding methodology, which we refer to as real-time network data steganography. Finally, we provide the groundwork for this fundamental change of covert network data embedding by introducing a system-level implementation for real-time network data operations that will open the path for even further advances in computer network security. KEYWORDS Network Steganography, Real-time Networking, TCP/IP Communications, Network Protocols 1. INTRODUCTION Even though the origins of steganography reach back to the time of ancient Greece, to Herodotus in 440 BC, the art of steganography continues to evolve. This is especially true in the technical methods of digital embedding [1][2]. Digital steganography has been used since the early 1980’s and network steganography techniques quickly evolved with the advent of the Internet and standardized multimedia formats used for data exchange [3]. -
Cybersecurity, IT-Aided Education, and Teles: Nexus, Vistas & Realities
CYBERSECURITY, IT-AIDED EDUCATION, AND TELES: NEXUS, VISTAS & REALITIES Emmanuel C. Ogu* Department of Computer Science, [email protected] School of Computing and Engineer- ing Sciences, Babcock University, Ilishan-Remo, Ogun State, Nigeria. Chiemela Ogu EMINDA Konsults, Yaba, Lagos, [email protected] Nigeria. * Corresponding author ABSTRACT Background The current decade has witnessed rising spates of threats and attacks that have threatened the safety and security of cyberspace, thereby giving rise to contem- porary discourses pertaining the realities that these ominous trends portend for technology innovation and digitalisation, in the emerging global digital society. In the process, the technological capabilities that have been used to effectively harness the efficiency that this virtual space provides for contemporary educa- tion and learning have been defamed. Aim/Purpose This exploratory research interrogates the possible relationships between the contemporary concerns of global cyber security, and the realities and prospects of IAE and TeLEs, while elucidating the crucial factors that impose on such relationship(s). Methodology This research adopts the qualitative research methodology with an exploratory approach to interrogate the various contemporary concerns of global cyberse- curity as contained in existing literature, especially as it affects the proliferation and adoption of IT-aided education and Technology-enhanced Learning Envi- ronments (TeLEs); based on a systematic correlational analysis of key interpos- ing concepts. Contribution The research presents an overview of the current status and prospects of de- velopment of IAE and TeLEs, as well as the nature of the realities associated with contemporary concerns of global cybersecurity; then also discussing how these cybersecurity concerns impact on the wider adoption and implementation of IAE and TeLEs. -
2017 ANNUAL REPORT 2017 Annual Report Table of Contents the Michael J
Roadmaps for Progress 2017 ANNUAL REPORT 2017 Annual Report Table of Contents The Michael J. Fox Foundation is dedicated to finding a cure for 2 A Note from Michael Parkinson’s disease through an 4 Annual Letter from the CEO and the Co-Founder aggressively funded research agenda 6 Roadmaps for Progress and to ensuring the development of 8 2017 in Photos improved therapies for those living 10 2017 Donor Listing 16 Legacy Circle with Parkinson’s today. 18 Industry Partners 26 Corporate Gifts 32 Tributees 36 Recurring Gifts 39 Team Fox 40 Team Fox Lifetime MVPs 46 The MJFF Signature Series 47 Team Fox in Photos 48 Financial Highlights 54 Credits 55 Boards and Councils Milestone Markers Throughout the book, look for stories of some of the dedicated Michael J. Fox Foundation community members whose generosity and collaboration are moving us forward. 1 The Michael J. Fox Foundation 2017 Annual Report “What matters most isn’t getting diagnosed with Parkinson’s, it’s A Note from what you do next. Michael J. Fox The choices we make after we’re diagnosed Dear Friend, can open doors to One of the great gifts of my life is that I've been in a position to take my experience with Parkinson's and combine it with the perspectives and expertise of others to accelerate possibilities you’d improved treatments and a cure. never imagine.’’ In 2017, thanks to your generosity and fierce belief in our shared mission, we moved closer to this goal than ever before. For helping us put breakthroughs within reach — thank you. -
Anna Chapman and Mikhail Semenko
Approved: MICHAEL FARBIARZ/GLEN KOPP/JASON SMITH Assistant United States Attorneys KATHLEEN KEDIAN Trial Attorney, Counterespionage Section, National Security Division, Department of Justice Before: HONORABLE RONALD L. ELLIS United States Magistrate Judge Southern District of New York SEALED UNITED STATES OF AMERICA COMPLAINT -v. - Violation of 18 U.S.C. § .371 ANNA CHAPMAN, and MIKHAIL SEMENKO, COUNTY OF OFFENSE: Defendants. NEW YORK SOUTHERN DISTRICT OF NEW YORK, ss. AMIT KACHHIA-PATEL, being duly sworn, deposes and says that he is a Special Agent with the Federal Bureau of Investigation ("FBI") and charges as follows: COUNT ONE Conspiracy to Act as Unregistered Agents of a Foreign Government 1. From in or about the 1990s, up to and including the present, in the Southern District of New York and elsewhere, ANNA CHAPMAN and MIKHAIL SEMENKO, the defendants, and others known and unknown, unlawfully, willfully and knowingly, did combine, conspire, confederate, and agree together and with each other to commit an offense against the United States, to wit, to violate Section 951 of Title 18, United States Code. 2. It was a part and an object of the conspiracy that ANNA CHAPMAN and MIKHAIL SEMENKO, the defendants, and others known and unknown, unlawfully, willfully and knowingly, would and did act in the United States as agents of a foreign government, specifically the Russian Federation, without prior notification to the Attorney General, as required by law, in violation of Title 18, United States Code, Section 951. Overt Acts 3. In furtherance of the conspiracy and to effect the illegal object thereof, the following overt acts, among others, were committed in the Southern District of New York and elsewhere: a. -
Steganography- a Data Hiding Technique
International Journal of Computer Applications (0975 – 8887) Volume 9– No.7, November 2010 Steganography- A Data Hiding Technique Arvind Kumar Km. Pooja Assistant Professor Vankateshwara institute of computer Vidya College of engineering, Meerut, India Science and technology, Meerut, India ABSTRACT In steganography, the possible cover carriers are innocent looking Steganography is the art of hiding information and an effort to carriers (images, audio, video, text, or some other digitally conceal the existence of the embedded information. It serves as a representative code) which will hold the hidden information. A better way of securing message than cryptography which only message is the information hidden and may be plaintext, cipher text, conceals the content of the message not the existence of the message. images, or anything that can be embedded into a bit stream. Together Original message is being hidden within a carrier such that the the cover carrier and the embedded message create a stego-carrier. changes so occurred in the carrier are not observable. In this paper we Hiding information may require a stego key which is additional secret will discuss how digital images can be used as a carrier to hide information, such as a password, required for embedding the messages. This paper also analyses the performance of some of the information. For example, when a secret message is hidden within a steganography tools. Steganography is a useful tool that allows covert cover image, the resulting product is a stego-image. transmission of information over an over the communications A possible formula of the process may be represented as: cover channel. -
Defending Against Insider Use of Digital Steganography
2007 Annual ADFSL Conference on Digital Forensics, Security and Law Proceedings Defending Against Insider Use of Digital Steganography James E. Wingate CISSP-ISSEP, CISM, IAM, Backbone Security, [email protected] Glenn D. Watt CISSP, CISM, IAM, IEM, Backbone Security, [email protected] Marc Kurtz CISSP, Backbone Security, [email protected] Chad W. Davis CCE, Backbone Security, [email protected] Robert Lipscomb Backbone Security, [email protected] Follow this and additional works at: https://commons.erau.edu/adfsl Part of the Computer Engineering Commons, Computer Law Commons, Electrical and Computer Engineering Commons, Forensic Science and Technology Commons, and the Information Security Commons Scholarly Commons Citation Wingate, James E.; Watt, Glenn D.; Kurtz, Marc; Davis, Chad W.; and Lipscomb, Robert, "Defending Against Insider Use of Digital Steganography" (2007). Annual ADFSL Conference on Digital Forensics, Security and Law. 1. https://commons.erau.edu/adfsl/2007/session-11/1 This Peer Reviewed Paper is brought to you for free and open access by the Conferences at Scholarly Commons. It has been accepted for inclusion in Annual ADFSL Conference on Digital Forensics, Security and Law by an (c)ADFSL authorized administrator of Scholarly Commons. For more information, please contact [email protected]. Conference on Digital Forensics, Security and Law, 2007 Defending Against Insider Use of Digital Steganography James E. Wingate, CISSP-ISSEP, Glenn D. Watt, CISSP, -
The National Security Council Was Briefed on Anna Chapman Before Her Arrest
THE NATIONAL SECURITY COUNCIL WAS BRIEFED ON ANNA CHAPMAN BEFORE HER ARREST I frankly wasn’t all that interested in the news that Russian spy Anna Chapman was setting a honey trap for an Obama cabinet official… In a documentary broadcast last night, FBI counter-intelligence chief Frank Figliuzzi claimed the glamorous Russian agent got close enough to ‘disturb’ U.S. spy catchers. He said the fear that Miss Chapman was close to seducing a sitting member of the Obama administration spurred agents to swoop on the 10-strong spy ring of which she was a part. Mr Figliuzzi told the Channel 4 documentary the auburn-haired spy got ‘closer and closer to higher and higher ranking leadership… she got close enough to disturb us.’ ‘We were becoming very concerned,’ he said. ‘They were getting close enough to a sitting US cabinet member that we thought we could no longer allow this to continue.’ Until Laura Rozen noted that Peter Orszag left the White House in July 2010. Since most of the cabinet level officials with some base in NY, where Chapman lived and socialized–like Hillary Clinton and Susan Rice–are female, I simply hadn’t thought that much about who her target could have been. Though Orszag presents an interesting possibility (not least because he was personally involved in our cybersecurity efforts at the time). And an even more interesting date, to me, is the day the White House announced his departure: June 22, just 3 days before they started rolling up the Russian spy network. Now, whether or not Orszag was the target (I’ve got some other suspicions, and if he was, Chapman would have been targeting Orszag during the period after he got engaged but before he got married), her comment was enough to get me to refer back to my coverage on Chapman’s arrest. -
Image Steganography Applications for Secure Communication
IMAGE STEGANOGRAPHY APPLICATIONS FOR SECURE COMMUNICATION by Tayana Morkel Submitted in partial fulfillment of the requirements for the degree Master of Science (Computer Science) in the Faculty of Engineering, Built Environment and Information Technology University of Pretoria, Pretoria May 2012 © University of Pretoria Image Steganography Applications for Secure Communication by Tayana Morkel E-mail: [email protected] Abstract To securely communicate information between parties or locations is not an easy task considering the possible attacks or unintentional changes that can occur during communication. Encryption is often used to protect secret information from unauthorised access. Encryption, however, is not inconspicuous and the observable exchange of encrypted information between two parties can provide a potential attacker with information on the sender and receiver(s). The presence of encrypted information can also entice a potential attacker to launch an attack on the secure communication. This dissertation investigates and discusses the use of image steganography, a technology for hiding information in other information, to facilitate secure communication. Secure communication is divided into three categories: self-communication, one-to-one communication and one-to-many communication, depending on the number of receivers. In this dissertation, applications that make use of image steganography are implemented for each of the secure communication categories. For self-communication, image steganography is used to hide one-time passwords (OTPs) in images that are stored on a mobile device. For one-to-one communication, a decryptor program that forms part of an encryption protocol is embedded in an image using image steganography and for one-to-many communication, a secret message is divided into pieces and different pieces are embedded in different images. -
Hiding Images in Plain Sight: Deep Steganography
Hiding Images in Plain Sight: Deep Steganography Shumeet Baluja Google Research Google, Inc. [email protected] Abstract Steganography is the practice of concealing a secret message within another, ordinary, message. Commonly, steganography is used to unobtrusively hide a small message within the noisy regions of a larger image. In this study, we attempt to place a full size color image within another image of the same size. Deep neural networks are simultaneously trained to create the hiding and revealing processes and are designed to specifically work as a pair. The system is trained on images drawn randomly from the ImageNet database, and works well on natural images from a wide variety of sources. Beyond demonstrating the successful application of deep learning to hiding images, we carefully examine how the result is achieved and explore extensions. Unlike many popular steganographic methods that encode the secret message within the least significant bits of the carrier image, our approach compresses and distributes the secret image’s representation across all of the available bits. 1 Introduction to Steganography Steganography is the art of covered or hidden writing; the term itself dates back to the 15th century, when messages were physically hidden. In modern steganography, the goal is to covertly communicate a digital message. The steganographic process places a hidden message in a transport medium, called the carrier. The carrier may be publicly visible. For added security, the hidden message can also be encrypted, thereby increasing the perceived randomness and decreasing the likelihood of content discovery even if the existence of the message detected. Good introductions to steganography and steganalysis (the process of discovering hidden messages) can be found in [1–5]. -
125Th Street, Harlem, NY
APOLLO ANNUAL REPORT 2016-17th 125 Street, Harlem, NY 1 TABLE OF CONTENTS APOLLO MUSIC APOLLO COMMUNITY LEADERSHIP Page 10 Page 16 Page 4 APOLLO DANCE APOLLO EDUCATION ELLA FITZGERALD Page 12 Page 18 CENTENNIAL CELEBRATION Page 6 APOLLO THEATER APOLLO IN THE MEDIA Page 13 Page 20 WOMEN OF THE WORLD Page 8 APOLLO SIGNATURE APOLLO CELEBRATIONS Page 14 Page 22 APOLLO PEOPLE STATEMENT OF Page 27 OPERATING ACTIVITY Page 24 APOLLO SUPPORTERS Page 28 STATEMENT OF FINANCIAL POSITION Page 26 JOIN THE APOLLO Page 30 “Since its inception, the Apollo Theater has been home to legendary and FROM OUR up-and-coming artists alike, serving as an ever-changing, driving force in popular music and culture, not only in Harlem but across the world.” LEADERSHIP Jonelle Procope, President and CEO of the Apollo Theater We are delighted to share this Annual Report highlighting It is an incredible honor to bring my voice to the Apollo’s the incredible accomplishments of the Apollo’s season. Key storied legacy and exciting future. My first season at the milestones from the 2016-2017 season include welcoming Apollo has been a whirlwind of inspiring and innovative Kamilah Forbes as the new Executive Producer; presenting performances and programs. I especially want to mention The First Noel, the first multi-week run of an Apollo-Presents the four-day Women of the World Festival, which was show on the iconic Mainstage; and welcoming popular anchored by a special tribute concert to the incomparable Brooklyn-based festival, Afropunk, for their first appearance artist/activist Abbey Lincoln. -
Data Hiding Using Steganography and Cryptography
Varsha et al, International Journal of Computer Science and Mobile Computing, Vol.4 Issue.4, April- 2015, pg. 802-805 Available Online at www.ijcsmc.com International Journal of Computer Science and Mobile Computing A Monthly Journal of Computer Science and Information Technology ISSN 2320–088X IJCSMC, Vol. 4, Issue. 4, April 2015, pg.802 – 805 REVIEW ARTICLE Data Hiding Using Steganography and Cryptography Varsha1, Dr. Rajender Singh Chhillar2 1M.Tech Student, Department of Computer Science & Application, M.D. University, Rohtak-124001 2Professor & Former Head, Department of Computer Science & Application, M.D. University, Rohtak-124001 1Email Id: [email protected] Abstract — Steganography and Cryptography are two popular ways of sending vital information in a secret way. One hides the existence of the message and the other distorts the message itself. This paper discussed a technique used on the advanced LSB (least significant bit) and RSA algorithm. By matching data to an image, there is less chance of an attacker being able to use steganalysis to recover data. Before hiding the data in an image the application first encrypts it. Keywords— RSA algorithm, cryptography, steganography, LSB method I. INTRODUCTION The growing use of Internet among public masses and availability of public and private digital data and its sharing has driven industry professionals and researchers to pay a particular attention to information security. Internet users frequently need to store, send, or receive private information and this private information needs to be protected against unauthorized access and attacks. Presently, three main methods of information security being used: watermarking, cryptography and steganography. In watermarking, data are hidden to convey some information about the cover medium such as ownership and copyright. -
Russian Intelligence Services and Special Forces
BRIEFING PAPER Number CBP 8430, 30 October 2018 Russian intelligence By Ben Smith services and special forces Contents: 1. KGB reborn? 2. GRU 3. Spetsnaz 4. What’s new? www.parliament.uk/commons-library | intranet.parliament.uk/commons-library | [email protected] | @commonslibrary 2 Russian intelligence services and special forces Contents Summary 3 1. KGB reborn? 4 1.1 FSB 4 1.2 SVR 5 1.3 FSO and GUSP 5 2. GRU 7 Cyber warfare 7 NCSC Review 8 3. Spetsnaz 9 4. What’s new? 12 Cover page image copyright: Special operations forces of the Russian Federation by Ministry of Defence of the Russian Federation (Mil.ru). Licensed under the Creative Commons Attribution 4.0 International license / image cropped. 3 Commons Library Briefing, 30 October 2018 Summary The Salisbury incident and its aftermath brought the Russian secret services into the spotlight. Malcolm Chalmers of Royal United Services Institute said Russian security services were going well beyond normal spying practice: “By launching disruptive operations that threaten life in target societies, they blur the line between war and peace”. The main domestic service, the FSB, is a successor to the Communist-era KGB. It is responsible for counter-terrorism and counter espionage and Russian information security. Critics say that it continues the KGB’s work of persecution of ‘dissidents’ and is guilty of torture and other human rights violations, and of extortion and corruption. One estimate put its staff complement at 200,000, and it has grown in power, particularly since the election of Vladimir Putin as President of Russia.