Switchcert Security Report October 2015
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2015 Threat Report Provides a Comprehensive Overview of the Cyber Threat Landscape Facing Both Companies and Individuals
THREAT REPORT 2015 AT A GLANCE 2015 HIGHLIGHTS A few of the major events in 2015 concerning security issues. 08 07/15: Hacking Team 07/15: Bugs prompt 02/15: Europol joint breached, data Ford, Range Rover, 08/15: Google patches op takes down Ramnit released online Prius, Chrysler recalls Android Stagefright botnet flaw 09/15: XcodeGhost 07/15: Android 07/15: FBI Darkode tainted apps prompts Stagefright flaw 08/15: Amazon, ENFORCEMENT bazaar shutdown ATTACKS AppStore cleanup VULNERABILITY reported SECURITYPRODUCT Chrome drop Flash ads TOP MALWARE BREACHING THE MEET THE DUKES FAMILIES WALLED GARDEN The Dukes are a well- 12 18 resourced, highly 20 Njw0rm was the most In late 2015, the Apple App prominent new malware family in 2015. Store saw a string of incidents where dedicated and organized developers had used compromised tools cyberespionage group believed to be to unwittingly create apps with malicious working for the Russian Federation since behavior. The apps were able to bypass at least 2008 to collect intelligence in Njw0rm Apple’s review procedures to gain entry support of foreign and security policy decision-making. Angler into the store, and from there into an ordinary user’s iOS device. Gamarue THE CHAIN OF THE CHAIN OF Dorkbot COMPROMISE COMPROMISE: 23 The Stages 28 The Chain of Compromise Nuclear is a user-centric model that illustrates Kilim how cyber attacks combine different Ippedo techniques and resources to compromise Dridex devices and networks. It is defined by 4 main phases: Inception, Intrusion, WormLink Infection, and Invasion. INCEPTION Redirectors wreak havoc on US, Europe (p.28) INTRUSION AnglerEK dominates Flash (p.29) INFECTION The rise of rypto-ransomware (p.31) THREATS BY REGION Europe was particularly affected by the Angler exploit kit. -
Systematization of Vulnerability Discovery Knowledge: Review
Systematization of Vulnerability Discovery Knowledge Review Protocol Nuthan Munaiah and Andrew Meneely Department of Software Engineering Rochester Institute of Technology Rochester, NY 14623 {nm6061,axmvse}@rit.edu February 12, 2019 1 Introduction As more aspects of our daily lives depend on technology, the software that supports this technology must be secure. We, as users, almost subconsciously assume the software we use to always be available to serve our requests while preserving the confidentiality and integrity of our information. Unfortunately, incidents involving catastrophic software vulnerabilities such as Heartbleed (in OpenSSL), Stagefright (in Android), and EternalBlue (in Windows) have made abundantly clear that software, like other engineered creations, is prone to mistakes. Over the years, Software Engineering, as a discipline, has recognized the potential for engineers to make mistakes and has incorporated processes to prevent such mistakes from becoming exploitable vulnerabilities. Developers leverage a plethora of processes, techniques, and tools such as threat modeling, static and dynamic analyses, unit/integration/fuzz/penetration testing, and code reviews to engineer secure software. These practices, while effective at identifying vulnerabilities in software, are limited in their ability to describe the engineering failures that may have led to the introduction of vulnerabilities. Fortunately, as researchers propose empirically-validated metrics to characterize historical vulnerabilities, the factors that may have led to the introduction of vulnerabilities emerge. Developers must be made aware of these factors to help them proactively consider security implications of the code that they contribute. In other words, we want developers to think like an attacker (i.e. inculcate an attacker mindset) to proactively discover vulnerabilities. -
Government Hacking What Is It and When Should It Be Used?
Government Hacking What is it and when should it be used? Encryption is a critical component of our day-to-day lives. For much of the world, basic aspects of life rely on encryption to function. Power systems, transport, financial markets, and baby monitors1 are more trustworthy because of encryption. Encryption protects our most vulnerable data from criminals and terrorists, but it can also hide criminal content from governments. Government hacking is one of the approaches national security and law enforcement agencies use to obtain access to otherwise encrypted information (e.g. the FBI hired a hacking company to unlock the iPhone at the center of the San Bernardino case2). It complements their other efforts to obtain exceptional access3 by asking or requiring tech companies to have the technical ability to decrypt users’ content when it is needed for law enforcement purposes. The Internet Society believes strong encryption is vital to the health of the Internet and is deeply concerned about any policy or action that might put that in jeopardy — regardless of its motivation. Government hacking poses a risk of collateral damage to both the Internet and its users, and as such should only ever be considered as a tool of last resort. Government hacking defined We define ‘government hacking’ as government entities (e.g. national security or law enforcement agencies or private actors on their behalf) exploiting vulnerabilities in systems, software, or hardware to gain access to information that is otherwise encrypted, or inaccessible. Dangers of government hacking Exploiting vulnerabilities of any kind, whether for law enforcement purposes, security testing, or any other purpose, should not be taken lightly. -
Internet Security Threat Report VOLUME 21, APRIL 2016 TABLE of CONTENTS 2016 Internet Security Threat Report 2
Internet Security Threat Report VOLUME 21, APRIL 2016 TABLE OF CONTENTS 2016 Internet Security Threat Report 2 CONTENTS 4 Introduction 21 Tech Support Scams Go Nuclear, 39 Infographic: A New Zero-Day Vulnerability Spreading Ransomware Discovered Every Week in 2015 5 Executive Summary 22 Malvertising 39 Infographic: A New Zero-Day Vulnerability Discovered Every Week in 2015 8 BIG NUMBERS 23 Cybersecurity Challenges For Website Owners 40 Spear Phishing 10 MOBILE DEVICES & THE 23 Put Your Money Where Your Mouse Is 43 Active Attack Groups in 2015 INTERNET OF THINGS 23 Websites Are Still Vulnerable to Attacks 44 Infographic: Attackers Target Both Large and Small Businesses 10 Smartphones Leading to Malware and Data Breaches and Mobile Devices 23 Moving to Stronger Authentication 45 Profiting from High-Level Corporate Attacks and the Butterfly Effect 10 One Phone Per Person 24 Accelerating to Always-On Encryption 45 Cybersecurity, Cybersabotage, and Coping 11 Cross-Over Threats 24 Reinforced Reassurance with Black Swan Events 11 Android Attacks Become More Stealthy 25 Websites Need to Become Harder to 46 Cybersabotage and 12 How Malicious Video Messages Could Attack the Threat of “Hybrid Warfare” Lead to Stagefright and Stagefright 2.0 25 SSL/TLS and The 46 Small Business and the Dirty Linen Attack Industry’s Response 13 Android Users under Fire with Phishing 47 Industrial Control Systems and Ransomware 25 The Evolution of Encryption Vulnerable to Attacks 13 Apple iOS Users Now More at Risk than 25 Strength in Numbers 47 Obscurity is No Defense -
Compromised Connections
COMPROMISED CONNECTIONS OVERCOMING PRIVACY CHALLENGES OF THE MOBILE INTERNET The Universal Declaration of Human Rights, the International Covenant on Civil and Political Rights, and many other international and regional treaties recognize privacy as a fundamental human right. Privacy A WORLD OF INFORMATION underpins key values such as freedom of expression, freedom of association, and freedom of speech, IN YOUR MOBILE PHONE and it is one of the most important, nuanced and complex fundamental rights of contemporary age. For those of us who care deeply about privacy, safety and security, not only for ourselves but also for our development partners and their missions, we need to think of mobile phones as primary computers As mobile phones have transformed from clunky handheld calling devices to nifty touch-screen rather than just calling devices. We need to keep in mind that, as the storage, functionality, and smartphones loaded with apps and supported by cloud access, the networks these phones rely on capability of mobiles increase, so do the risks to users. have become ubiquitous, ferrying vast amounts of data across invisible spectrums and reaching the Can we address these hidden costs to our digital connections? Fortunately, yes! We recommend: most remote corners of the world. • Adopting device, data, network and application safety measures From a technical point-of-view, today’s phones are actually more like compact mobile computers. They are packed with digital intelligence and capable of processing many of the tasks previously confined -
APT and Cybercriminal Targeting of HCS June 9, 2020 Agenda
APT and Cybercriminal Targeting of HCS June 9, 2020 Agenda • Executive Summary Slides Key: • APT Group Objectives Non-Technical: managerial, strategic • APT Groups Targeting Health Sector and high-level (general audience) • Activity Timeline Technical: Tactical / IOCs; requiring • TTPs in-depth knowledge (sysadmins, IRT) • Malware • Vulnerabilities • Recommendations and Mitigations TLP: WHITE, ID#202006091030 2 Executive Summary • APT groups steal data, disrupt operations, and destroy infrastructure. Unlike most cybercriminals, APT attackers pursue their objectives over longer periods of time. They adapt to cyber defenses and frequently retarget the same victim. • Common HPH targets include: • Healthcare Biotechnology Medical devices • Pharmaceuticals Healthcare information technology • Scientific research • HPH organizations who have been victim of APT attacks have suffered: • Reputational harm Disruption to operations • Financial losses PII/PHI and proprietary data theft • HC3 recommends several mitigations and controls to counter APT threats. TLP: WHITE, ID#202006091030 3 APT Group Objectives • Motivations of APT Groups which target the health sector include: • Competitive advantage • Theft of proprietary data/intellectual capital such as technology, manufacturing processes, partnership agreements, business plans, pricing documents, test results, scientific research, communications, and contact lists to unfairly advance economically. • Intelligence gathering • Groups target individuals and connected associates to further social engineering -
From Hacking Team to Hacked Team to ...?
WWW.VIRUSBULLETIN.COM/CONFERENCE 2018MONTREAL 3 – 5 October 2018 FROM HACKING TEAM TO • evidence of selling an injection proxy for performing various MitM attacks HACKED TEAM TO…? • the once-secret list of customers Filip Kafka • the pricelist ESET, Slovakia • internal communications [email protected] Due to the severity of the leak, Hacking Team was forced to ask its customers to suspend all use of RCS, and was left facing an uncertain future. ABSTRACT The security community has been keeping a close eye on the Hacking Team first came under the spotlight of the security company’s efforts to get back on its feet. With both the source industry following its damaging data breach in July 2015. The code and a ready-to-use builder leaked, it came as no surprise leaked data revealed several zero-day exploits being used and when cybercriminals started reusing the spyware. This was the sold to governments, and confirmed suspicions that Hacking case in January 2016, when Callisto Group reused the source Team had been doing business with oppressive regimes. But code in one of their campaigns [4]. Recent reports have revealed what happened to Hacking Team after one of the most famous that in June 2016, Hacking Team received funding from a hacks of recent years? mysterious investor with ties to Saudi Arabia [5]. Hacking Team’s flagship product, the Remote Control System (RCS), was detected in the wild at the beginning of 2018 in 14 DISCOVERY OF POST-LEAK SAMPLES different countries, including some of those that had previously In the early stages of our investigation, the Citizen Lab provided criticized the company’s practices. -
Mind the Gap: Dissecting the Android Patch Gap | Ben Schlabs
Mind the Gap – Dissecting the Android patch gap Ben Schlabs <[email protected]> SRLabs Template v12 Corporate Design 2016 Allow us to take you on two intertwined journeys This talk in a nutshell § Wanted to understand how fully-maintained Android phones can be exploited Research § Found surprisingly large patch gaps for many Android vendors journey – some of these are already being closed § Also found Android exploitation to be unexpectedly difficult § Wanted to check thousands of firmwares for the presence of Das Logo Horizontal hundreds of patches — Pos / Neg Engineering § Developed and scaled a rather unique analysis method journey § Created an app for your own analysis 2 3 Android patching is a known-hard problem Patching challenges Patch ecosystems § Computer OS vendors regularly issue patches OS vendor § Users “only” have to confirm the installation of § Microsoft OS patches Patching is hard these patches § Apple Endpoints & severs to start with § Still, enterprises consider regular patching § Linux distro among the most effortful security tasks § “The moBile ecosystem’s diversity […] OS Chipset Phone Android contriButes to security update complexity and vendor vendor vendor phones inconsistency.” – FTC report, March 2018 [1] The nature of Telco § Das Logo HorizontalAndroid makes Patches are handed down a long chain of — Pos / Negpatching so typically four parties Before reaching the user much more § Only some devices get patched (2016: 17% [2]). difficult We focus our research on these “fully patched” phones Our research question – -
Automating Patching of Vulnerable Open-Source Software Versions in Application Binaries
Automating Patching of Vulnerable Open-Source Software Versions in Application Binaries Ruian Duan:, Ashish Bijlani:, Yang Ji:, Omar Alrawi:, Yiyuan Xiong˚, Moses Ike:, Brendan Saltaformaggio,: and Wenke Lee: fruian, ashish.bijlani, yang.ji, alrawi, [email protected], [email protected] [email protected], [email protected] : Georgia Institute of Technology, ˚ Peking University Abstract—Mobile application developers rely heavily on open- while ensuring backward compatibility, and test for unin- source software (OSS) to offload common functionalities such tended side-effects. For the Android platform, Google has as the implementation of protocols and media format playback. initiated the App Security Improvement Program (ASIP) [21] Over the past years, several vulnerabilities have been found in to notify developers of vulnerable third-party libraries in popular open-source libraries like OpenSSL and FFmpeg. Mobile use. Unfortunately, many developers, as OSSPolice [15] and applications that include such libraries inherit these flaws, which LibScout [4] show, do not update or patch their application, make them vulnerable. Fortunately, the open-source community is responsive and patches are made available within days. However, which leaves end-users exposed. Android developers mainly mobile application developers are often left unaware of these use Java and C/C++ [1] libraries. While Derr et al. [14] flaws. The App Security Improvement Program (ASIP) isa show that vulnerable Java libraries can be fixed by library- commendable effort by Google to notify application developers level update, their C/C++ counterparts, which contain many of these flaws, but recent work has shown that many developers more documented security bugs in the National Vulnerability do not act on this information. -
Accountability and Government Discovery of Computer Exploits 1.2.1
Accountability and the Canadian Government’s Reporting of Computer Vulnerabilities and Exploits By Christopher Parsons1 Abstract: Computer security vulnerabilities can be exploited by unauthorized parties to affect targeted systems contrary to the preferences their owner or controller. Companies routinely issue patches to remediate the vulnerabilities after learning that the vulnerabilities exist. However, these flaws are sometimes obtained, used, and kept secret by government actors, who assert that revealing vulnerabilities would undermine intelligence, security, or law enforcement operations. This paper argues that a publicly visible accountability regime is needed to control the discovery, purchase, use, and reporting of computer exploits by Canadian government actors for two reasons. First, because when utilized by Canadian state actors the vulnerabilities could be leveraged to deeply intrude into the private lives of citizens, and legislative precedent indicates that such intrusions should be carefully regulated so that the legislature can hold the government to account. Second, because the vulnerabilities underlying any exploits could be discovered or used by a range of hostile operators to subsequently threaten Canadian citizens’ and residents’ of Canada personal security or the integrity of democratic institutions. On these bases, it is of high importance that the government of Canada formally develop, publish, and act according to an accountability regime that would regulate its agencies’ exploitation of computer vulnerabilities. Version: 1.2.1 Dated: Nov 2, 2018 1 Dr. Christopher Parsons a Research Associate at the Citizen Lab, in the Munk School of Global Affairs and Public Policy with the University of Toronto. His research focuses on the privacy, security, and political implications of third-party access to telecommunications data. -
Ubootkit: a Worm Attack for the Bootloader of Iot Devices Authors
UbootKit: A Worm Attack for the Bootloader of IoT Devices Authors {Jingyu YANG ([email protected]), Chen GENG, Bin WANG, Zhao LIU, Chendong LI, Jiahua GAO, Guize LIU, Jinsong MA}(Tencent) {Weikun YANG ([email protected])}(Princeton University) Abstract The security of the IoT has never been so important, especially when millions of devices become parts of everyday life. Most of the IoT devices, however, are vulnerable to cyberattacks as the hardware resources are limited or the security design is missing during the development. Tencent Anti-Virus Laboratory demonstrates a new worm prototype dubbed UbootKit, which targets at the bootloader of IoT devices, to indicate how a worm can propagate between variable devices and why it is difficult to be eliminated. UbootKit attack is a kind of manipulation attack against the bootloader, causing infected devices to be remotely controlled and spreading malware to other devices. UbootKit is extremely difficult to be removed, even by physically pressing the reset button, and is able to attack various kinds of IoT devices with Linux system. A demonstration will be introduced to explain how UbootKit is able to propagate between ARM and MIPS based devices. First, the worm rewrites the bootloader to parasite on the host. Second, the modified bootloader hijacks the starting procedure of the Linux kernel in memory. The malicious code in the kernel will download a worm program and execute it with the root privilege. Finally, the downloaded worm program attacks other devices through password scanning or remote execution exploits. The experiment affirms that UbootKit is able to infect real IoT products, such as routers and webcams. -
VULNERABLE by DESIGN: MITIGATING DESIGN FLAWS in HARDWARE and SOFTWARE Konoth, R.K
VU Research Portal VULNERABLE BY DESIGN: MITIGATING DESIGN FLAWS IN HARDWARE AND SOFTWARE Konoth, R.K. 2020 document version Publisher's PDF, also known as Version of record Link to publication in VU Research Portal citation for published version (APA) Konoth, R. K. (2020). VULNERABLE BY DESIGN: MITIGATING DESIGN FLAWS IN HARDWARE AND SOFTWARE. General rights Copyright and moral rights for the publications made accessible in the public portal are retained by the authors and/or other copyright owners and it is a condition of accessing publications that users recognise and abide by the legal requirements associated with these rights. • Users may download and print one copy of any publication from the public portal for the purpose of private study or research. • You may not further distribute the material or use it for any profit-making activity or commercial gain • You may freely distribute the URL identifying the publication in the public portal ? Take down policy If you believe that this document breaches copyright please contact us providing details, and we will remove access to the work immediately and investigate your claim. E-mail address: [email protected] Download date: 07. Oct. 2021 VULNERABLE BY DESIGN: MITIGATING DESIGN FLAWS IN HARDWARE AND SOFTWARE PH.D. THESIS RADHESH KRISHNAN KONOTH VRIJE UNIVERSITEIT AMSTERDAM, 2020 Faculty of Science The research reported in this dissertation was conducted at the Faculty of Science — at the Department of Computer Science — of the Vrije Universiteit Amsterdam This work was supported by the MALPAY consortium, consisting of the Dutch national police, ING, ABN AMRO, Rabobank, Fox-IT, and TNO.