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ZZtech, founded by Zach Stenger.

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Showing posts with label PCWorld Lucian Constantin. Show all posts
Showing posts with label PCWorld Lucian Constantin. Show all posts

Monday, December 2, 2013

Akamai to buy DDoS protection specialist Prolexic


Content delivery services provider Akamai Technologies plans to buy Prolexic Technologies, a distributed denial-of-service (DDoS) mitigation specialist, for US$370 million in cash.


Akamai, in Cambridge, Massachusetts, runs one of the world's largest content delivery networks with 137,000 servers in 87 countries. Its clients span a variety of industries and include a third of the companies on the Fortune Global 500 list.


Akamai already offers security services that protect Web sites and Web applications against a variety of threats, including DDoS attacks. However, Prolexic, located in Hollywood, Florida, specializes in defending enterprise applications against application-layer and network-layer attacks.


By acquiring Prolexic, Akamai wants to expand its services and provide customers with the technology needed to protect Web and IP infrastructure.


The transaction is pending regulatory approvals and is expected to close in the first half of 2014.


According to Scott Hammack, CEO of Prolexic, combining the expertise of both companies will allow customers to use a single provider for the Internet performance and security needs of their applications, which will simplify the resolution of network availability issues and clarify accountability.


Prolexic operates a network of so-called scrubbing centers spread around the world that have a combined bandwidth of more than 1.5 Tbps. When a DDoS attack occurs, the targeted customer routes in-bound traffic to the nearest Prolexic center, which has enough bandwidth capacity to analyze it and apply DDoS filtering techniques in order to identify and drop the malicious packets. The clean, scrubbed traffic is then routed back to the customer.


The size and number of DDoS attacks has increased significantly in recent years and the methods used by attackers have become more sophisticated, according to past reports from Prolexic and other DDoS mitigation vendors.




Lucian Constantin, IDG News Service Reporter, IDG News Service, IDG News Service


Lucian Constantin writes about information security, privacy and data protection.

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Wednesday, November 27, 2013

Worm targets Linux PCs and embedded devices


A new worm is targeting x86 computers running Linux and PHP, and variants may also pose a threat to devices such as home routers and set-top boxes based on other chip architectures.


According to security researchers from Symantec, the malware spreads by exploiting a vulnerability in php-cgi, a component that allows PHP to run in the Common Gateway Interface (CGI) configuration. The vulnerability is tracked as CVE-2012-1823 and was patched in PHP 5.4.3 and PHP 5.3.13 in May 2012.


The new worm, which was named Linux.Darlloz, is based on proof-of-concept code released in late October, the Symantec researchers said Wednesday in a blog post.


"Upon execution, the worm generates IP [Internet Protocol] addresses randomly, accesses a specific path on the machine with well-known ID and passwords, and sends HTTP POST requests, which exploit the vulnerability," the Symantec researchers explained. "If the target is unpatched, it downloads the worm from a malicious server and starts searching for its next target."


The only variant seen to be spreading so far targets x86 systems, because the malicious binary downloaded from the attacker's server is in ELF (Executable and Linkable Format) format for Intel architectures.


However, the Symantec researchers claim the attacker also hosts variants of the worm for other architectures including ARM, PPC, MIPS and MIPSEL.


These architectures are used in embedded devices like home routers, IP cameras, set-top boxes and many others.


"The attacker is apparently trying to maximize the infection opportunity by expanding coverage to any devices running on Linux," the Symantec researchers said. "However, we have not confirmed attacks against non-PC devices yet."


The firmware of many embedded devices is based on some type of Linux and includes a Web server with PHP for the Web-based administration interface. These kinds of devices might be easier to compromise than Linux PCs or servers because they don't receive updates very often.


Patching vulnerabilities in embedded devices has never been an easy task. Many vendors don't issue regular updates and when they do, users are often not properly informed about the security issues fixed in those updates.


In addition, installing an update on embedded devices requires more work and technical knowledge than updating regular software installed on a computer. Users have to know where the updates are published, download them manually and then upload them to their devices through a Web-based administration interface.


"Many users may not be aware that they are using vulnerable devices in their homes or offices," the Symantec researchers said. "Another issue we could face is that even if users notice vulnerable devices, no updates have been provided to some products by the vendor, because of outdated technology or hardware limitations, such as not having enough memory or a CPU that is too slow to support new versions of the software."


To protect their devices from the worm, users are advised to verify if those devices run the latest available firmware version, update the firmware if needed, set up strong administration passwords and block HTTP POST requests to -/cgi-bin/php, -/cgi-bin/php5, -/cgi-bin/php-cgi, -/cgi-bin/php.cgi and -/cgi-bin/php4, either from the gateway firewall or on each individual device if possible, the Symantec researchers said.




Lucian Constantin, IDG News ServiceReporter, IDG News Service, IDG News Service


Lucian Constantin writes about information security, privacy and data protection.

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Tuesday, November 26, 2013

Trojan program 'Neverquest' a new threat to online banking users, researchers say


A new Trojan program that targets users of online financial services has the potential to spread very quickly over the next few months, security researchers warn.


The malware was first advertised on a private cybercrime forum in July, according to malware researchers from Kaspersky Lab who dubbed it Trojan-Banker.Win32/64.Neverquest.


"By mid-November Kaspersky Lab had recorded several thousand attempted Neverquest infections all around the world," said Sergey Golovanov, malware researcher at Kaspersky Lab, Tuesday in a blog post. "This threat is relatively new, and cybercriminals still aren't using it to its full capacity. In light of Neverquest's self-replication capabilities, the number of users attacked could increase considerably over a short period of time."


Neverquest has most of the features found in other financial malware. It can modify the content of websites opened inside Internet Explorer or Firefox and inject rogue forms into them, it can steal the username and passwords entered by victims on those websites and allow attackers to control infected computers remotely using VNC (Virtual Network Computing).


However, this Trojan program also has some features that make it stand out.


Its default configuration defines 28 targeted websites that belong to large international banks as well as popular online payment services. However, in addition to these predefined sites, the malware identifies Web pages visited by victims that contain certain keywords such as balance, checking account and account summary, and sends their content back to the attackers.


This helps attackers identify new financial websites to target and build scripts for the malware to interact with them.


Once attackers have the information they need to access a user's account on a website, they use a proxy server to connect to the user's computer via VNC and access the account directly. This can bypass certain account protection mechanisms enforced by websites because unauthorized actions like transferring money are done through the victim's browser.


"Of all of the sites targeted by this particular program, fidelity.com -- owned by Fidelity Investments -- appears to be the top target," Golovanov said. "This company is one of the largest mutual investment fund firms in the world. Its website offers clients a long list of ways to manage their finances online. This gives malicious users the chance to not only transfer cash funds to their own accounts, but also to play the stock market, using the accounts and the money of Neverquest victims."


The methods used to distribute Neverquest are similar to those used to distribute the Bredolab botnet client, which became one of the most widespread malware on the Internet in 2010.


Neverquest steals log-in credentials from FTP (File Transfer Protocol) client applications installed on infected computers. Attackers then use these FTP credentials to infect websites with the Neutrino exploit pack, which then exploits vulnerabilities in browser plug-ins to install the Neverquest malware on the computers of users visiting those sites.


The Trojan program also steals SMTP (Simple Mail Transfer Protocol) and POP (Post Office Protocol) credentials from email clients and sends them back to attackers so they can be used to send spam emails with malicious attachments. "These emails are typically designed to look like official notifications from a variety of services," Golovanov said.


In addition, Neverquest steals account log-in information for a large number of social networking websites and chat services accessed from infected computers. Those accounts could be used to spread links to infected websites with the intention to further spread Neverquest, even though Kaspersky Lab hasn't seen this method being used yet.


"As early as November, Kaspersky Lab noted instances where posts were made in hacker forums about buying and selling databases to access bank accounts and other documents used to open and manage the accounts to which stolen funds are sent," Golovanov said. "We can expect to see mass Neverquest attacks towards the end of the year, which could ultimately lead to more users becoming the victims of online cash theft."




Lucian Constantin, IDG News ServiceReporter, IDG News Service, IDG News Service


Lucian Constantin writes about information security, privacy and data protection.

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Monday, November 25, 2013

NSA reportedly compromised more than 50,000 networks worldwide


The U.S. National Security Agency reportedly hacked into over 50,000 computer networks around the world as part of its global intelligence gathering efforts, and also taps into large fiber optic cables that transport Internet traffic between continents at 20 different major points.


The agency installed specialized malware referred to as "implants" on over 50,000 devices in order to perform Computer Network Exploitation (CNE), Dutch newspaper NRC Handelsblad reported Saturday based on documents it said were leaked by former NSA contractor Edward Snowden.


The information is reportedly taken from a 2012 top secret presentation about the NSA's worldwide signals intelligence gathering capabilities that was shared with the intelligence services of Australia, Canada, the U.K. and New Zealand that form the Five Eyes partnership.


CNE is one of three types of Computer Network Operations that NSA computer specialists perform. It "includes enabling actions and intelligence collection via computer networks that exploit data gathered from target or enemy information systems or networks," the NSA says on its careers website.


According to a presentation slide published by NRC, the NSA deployed over 50,000 CNE "implants" world-wide.


The Washington Post reported in August that the attack tools used for these implants are developed by a specialized NSA team called Tailored Access Operations (TAO) and are designed to compromise routers, switches and firewalls to monitor entire networks.


The implants persist through software and equipment upgrades and can be used to harvest communications, copy stored data and tunnel into the compromised networks from outside, according to the Washington Post. Their number is expected to reach over 85,000 by the end of 2013.


The slide leaked by NRC also reveals that, aside from CNEs, NSA has access to large Internet cables at 20 different locations, most of them outside the U.S.; runs over 80 regional Special Collection Service (SCS) installations that are part of a joint CIA-NSA program used for close surveillance operations and wiretapping; maintains liaison with 30 third-party countries outside of the Five Eyes; and has access to 52 regional facilities dedicated to intercepting foreign satellite communications (FORNSAT).




Lucian Constantin, IDG News Service Reporter, IDG News Service, IDG News Service


Lucian Constantin writes about information security, privacy and data protection.

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Wednesday, November 20, 2013

Hackers reportedly stole 42 million customer records from online dating network Cupid Media


Hackers reportedly stole 42 million customer records including email addresses and clear-text passwords from Cupid Media, a network of dating websites.


A file containing the Cupid Media user data was found on the same server where hackers also stored millions of records stolen from Adobe, PR Newswire, the U.S. National White Collar Crime Center (NW3C) and other organizations, independent security journalist Brian Krebs reported.


According to Krebs, who claims to have access to the data, the database contains names, email addresses, plaintext passwords and birth dates.


Based in Southport, Australia, Cupid Media operates a network of over 30 niche online dating websites with more than 30 million members in North and South America, Europe, Asia Pacific and the Middle East.


Andrew Bolton, Cupid Media's managing director, told Krebs that the information found on the rogue server appears to be related to a security breach that happened in January 2013, which customers had been notified about.


Bolton also reportedly said that a large portion of the leaked records correspond to old, inactive or deleted accounts and that the number of active users actually affected by the breach is considerably less than 42 million.


Cupid Media didn't immediately respond to a request for comment sent Wednesday.


According to Bolton, the company is now double-checking to make sure all affected users had their passwords reset and were notified by email.


After the January breach the company hired external consultants and implemented several security measures, including password hashing and salting, he said.


Storing cryptographic representations of passwords, known as hashes, instead of their clear text versions has long been a security best practice. However, as this breach shows, some website owners fail to implement the measure.


"Many companies shy away from encryption due to fear that it will be either too expensive or complicated, however the reality is that it doesn't have to be either," Jason Hart, vice president of cloud solutions at security company SafeNet, said via email. "With hacking attempts becoming almost a daily occurrence, it's clear that being breached is not a question of if but when."


Encryption and hashing -- both cryptographic functions -- can be used to protect data from attackers in case of a security breach, but only if implemented correctly.


A recent data breach at Adobe exposed 150 million user names and encrypted passwords. However, according to security researchers Adobe used encryption in an insecure way, making many of the passwords recoverable.


Last year, 6.5 million password hashes corresponding to LinkedIn accounts were posted in an underground forum. More than 60 percent of those hashes were cracked using brute-force methods because LinkedIn used a weak cryptographic hash function called SHA-1 without salting -- a measure that strengthens hashing.




Lucian Constantin, IDG News Service Reporter, IDG News Service, IDG News Service


Lucian Constantin writes about information security, privacy and data protection.

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Tuesday, November 19, 2013

Google strengthens its SSL configuration against possible attacks


Google replaced the SSL certificates for its online services with new ones that use stronger, 2048-bit RSA keys, making encrypted connections to its sites safer against so-called brute-force attacks.


The company announced in May that it would increase the key length for its SSL certificates from 1024 bits to 2048 bits by the end of 2013.


"Coming in ahead of schedule, we have completed this process, which will allow the industry to start removing trust from weaker, 1024-bit keys next year," Google security engineer Dan Dulay said Monday in a blog post.


Until not long ago 1024-bit RSA keys were considered sufficiently strong because cracking them using brute force by systematically trying all possible combinations was viewed as impractical due to the computing power and time required. However, following the recent revelations about the mass data collection programs of the U.S. National Security Agency and its investments in groundbreaking cryptanalysis, that's no longer the case.


"After more revelations, and expert analysis, we still aren't precisely sure what crypto the NSA can break," Robert Graham, the CEO of security firm Errata Security, said in a blog post in September. "But everyone seems to agree that if anything, the NSA can break 1024 RSA/DH keys. Assuming no 'breakthroughs,' the NSA can spend $1 billion on custom chips that can break such a key in a few hours. We know the NSA builds custom chips, they've got fairly public deals with IBM foundries to build chips."


Increasing the key length for SSL certificates is not a new development, as many certificate authorities have stopped issuing new certificates with 1024-bit keys for a while. The Baseline Requirements for the Issuance and Management of Publicly-Trusted Certificates, a set of guidelines published by the Certification Authority/Browser (CAB) Forum, states that all newly issued certificates that have a validity period ending after Dec. 31, 2013, should have 2048-bit RSA keys.


According to a November scan done by the SSL Pulse project, 96 percent of the Internet's top 162,480 HTTPS-enabled sites already use SSL certificates with 2048-bit keys.


"The deprecation of 1024-bit RSA is an industry-wide effort that we're happy to support, particularly in light of concerns about overbroad government surveillance and other forms of unwanted intrusion," Dulay said.


Google didn't rush to increase the key length earlier because its SSL configuration has been using the elliptic curve, ephemeral Diffie--Hellman (ECDHE) key-agreement protocol by default since 2011. This protocol has a property known as perfect forward secrecy (PFS) that makes it hard to decrypt previously captured traffic if the server's private key is compromised.


During an SSL handshake, the client generates a key for encrypting the session traffic and sends it to the server after encrypting it with the server's public key, which is available in the server's SSL certificate. The server then decrypts the session key chosen by the client with its secret private key and starts using it. This is known as the key agreement, where the client and server agree on a shared key.


If non-PFS key-agreement protocols are used, an attacker who learns the server's private key by brute force or other means can use it to decrypt the shared keys for any sessions captured in the past. In this configuration, the server's private key is actually a master key for all previous communications.


PFS key-agreement protocols like ECDHE mitigate this master key vulnerability and force attackers to break separate private keys for every captured session if they want to learn their content, making the mass decryption of SSL traffic through brute force attacks a lot less practical.


Client-side support for key-agreement protocols with PFS is very good across the board, said Ivan Ristic, director of application security research at security firm Qualys, which runs the SSL Labs and SSL Pulse projects. Clients that don't support this type of key exchange are likely very old and the amount of traffic they account for is small, he said.


Support for this feature on the server side is not as widespread. Forty-two percent of websites surveyed by SSL Pulse support some PFS cipher suites, but only around 3.7 percent actually use them with modern browsers.


According to Ristic, PFS makes passive attacks like decrypting a large amount of captured traffic much harder, but it doesn't protect against active attacks. An attacker with access to the server's private key and its SSL certificate could potentially launch man-in-the-middle attacks to impersonate the website to clients and intercept their data in real time.


Google revoked all of its 1024-bit certificates, but some browsers can be blocked by attackers from checking whether certificates have been revoked, and past research revealed that many non-browser applications don't check for certificate revocation at all.


However, in addition to using PFS, Google probably used short-lived private keys limiting their potential value for man-in-the-middle attacks.


The company's new certificates with 2048-bit keys will expire in four months and will be changed, which is probably what the company used to do with its 1024-bit certificates too, Ristic said. "In my experience, Google has had the best SSL configuration for some time now."


The company is able to change public-private key pairs frequently because it operates its own intermediate CA called Google Internet Authority and can use it to issue new certificates to itself.


"The hardware security module (HSM) that contained our old, 1024-bit, intermediate certificate has served us well," Dulay said. "Its final duty after all outstanding certificates were revoked, was to be carefully destroyed."


"With the demolition of the HSM and revocation of the old certificates, Google Internet Authority G2 will issue 2048-bit certificates for Google web sites and properties going forward," he said.




Lucian Constantin, IDG News Service Reporter, IDG News Service, IDG News Service


Lucian Constantin writes about information security, privacy and data protection.

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Wednesday, November 13, 2013

Microsoft Patch Tuesday advisories urge ditching old, weak crypto algorithms


Microsoft patched serious vulnerabilities Tuesday in Windows, Internet Explorer and Office, but also urged customers to stop using the aging RC4 cipher and SHA-1 hashing function in their systems and services.


These algorithms have known weaknesses and should be replaced with more secure alternatives in SSL deployments and digital certificates.


Microsoft released an update for Windows 7, Windows 8, Windows RT, Windows Server 2008 R2 and Windows Server 2012 that allows system administrators to disable RC4 using registry settings. The update also adds a SCH_USE_STRONG_CRYPTO flag that allows developers to remove RC4 support in their Internet applications that use the Windows Secure Channel (Schannel) library.


The settings added by the update are not enabled by default, but their use is recommended because of known weaknesses in the RC4 stream cipher. For SSL/TLS implementations, Microsoft recommends the AES-GCM cipher as an alternative, but this requires customers to enable support for TLS 1.2 in their services.


TLS, the successor of SSL, offers a choice of ciphers, but versions 1.0 and 1.1 of the protocol support only block ciphers that operate in cipher-block chaining (CBC) mode and the RC4 stream cipher. In recent years, several attacks have been demonstrated by security researchers against both CBC mode ciphers and RC4, leaving TLS 1.2, which adds support for block ciphers operating in Galois/Counter Mode (GCM), as the secure alternative.


Unfortunately, real-world support for TLS 1.2 is not yet widespread. According to statistics from the SSL Pulse project, as of Nov. 2, only around 20 percent of the world's 162,480 most popular HTTPS-enabled websites support TLS 1.2. Furthermore, default TLS 1.2 support has been added in Chrome 30, Mozilla Firefox 28, Internet Explorer 11, Opera 17 and Safari 7 on Mac OS, which have only been recently released or have yet to be released as stable versions.


As far as RC4 use on the Internet goes, Microsoft found that 43 percent of HTTPS websites prioritize this cipher in their configurations and about 4 percent of those actually require it.


"RC4 is a very widely used cipher suite," the SSL Pulse Project says. "Before 2013, we knew of some RC4 weaknesses, but it was thought that they did not affect SSL. With new research published in early 2013, we now know that RC4 is weak and should not be used."


On Tuesday, Microsoft also announced a new policy to deprecate the use of the SHA-1 hashing algorithm in digital certificates by 2016, recommending that customers move to certificates that use SHA-2.


"The new policy will no longer allow root certificate authorities to issue X.509 certificates using the SHA-1 hashing algorithm for the purposes of SSL and code signing after January 1, 2016," Microsoft said in a security advisory. "Using the SHA-1 hashing algorithm in digital certificates could allow an attacker to spoof content, perform phishing attacks, or perform man-in-the-middle attacks."


"Since 2005 there have been known collision attacks (where multiple inputs can produce the same output), meaning that SHA-1 no longer meets the security standards for producing a cryptographically secure message digest," Microsoft's Secure Windows Initiative Attack Team said in a blog post.


In 2012 the price of executing a collision attack on a SHA-1 signature using Amazon cloud servers was estimated to be US$2.77 million. However, the price is expected to drop to $700,000 by 2015 and $170,000 by 2018 due to increases in computing power.


On Patch Tuesday Microsoft also released a security update for an issue in how Windows handles X.509 certificates. "The vulnerability could allow denial of service when an affected web service processes a specially crafted X.509 certificate," the company said in an advisory.


Scheduled security patches for critical and important vulnerabilities in several Windows components, Internet Explorer and Microsoft Office have also been released. Those updates include fixes for one of two vulnerabilities that are already being actively exploited by attackers to infect computers with malware.


A remote code execution vulnerability in the Microsoft Graphics (GDI+) component used by Microsoft Windows, Microsoft Office, and Microsoft Lync, has not been patched. Microsoft published a security advisory for this vulnerability, which is tracked as CVE-2013-3906, on Nov. 5 and released a FixIt application as a temporary workaround.




Lucian Constantin, IDG News Service Reporter, IDG News Service, IDG News Service


Lucian Constantin writes about information security, privacy and data protection.

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Wednesday, October 30, 2013

Cops should be allowed to hack into computers, police officials say


Law enforcement agencies should be allowed to hack into computers to identify cybercriminals and collect evidence, representatives from Europol and the Dutch National Police argued in front of a room full of security professionals at the RSA Europe security conference in Amsterdam.


The Dutch parliament is expected to start debating a legislative proposal introduced earlier this year that would give the Dutch police the right to break into computers to investigate crimes, gather evidence and even take disruptive measures to stop crimes in progress.


"We don't call it hacking, and we definitely don't call it hacking back, because we won't be waiting until we are hacked," said Peter Zinn, a senior cybercrime adviser for the Dutch National High Tech Crime Unit (NHTCU), during the Wednesday panel, "Hacking Back as a Law Enforcement Role." The more appropriate term would be "lawful intrusion," he said.


The technological methods used for such intrusions would be the same ones used by hackers, but the police would do this legally, he said.


The laws should keep pace with technology and law enforcement agencies should have, under strict conditions, the ability to lawfully intrude on computers, Zinn said. There have already been two cases in the Netherlands where existing laws were stretched to allow for this type of action, he said.


In one case, the Dutch police obtained a court order to take control of some computers at hosting provider LeaseWeb and reconstruct the command-and-control panel for the Bredolab botnet, an action that eventually led to the identification of the botnet's creator and his arrest in Armenia in 2010. In the other case, police obtained permission from a judge to hack into a large child pornography website that was only accessible through the Tor network in order to bring it down.


"Without having the possibility to use these methods, we wouldn't have been able to solve those cases," Zinn said.


Troels Oerting, the head of the European Cybercrime Centre (EC3) at Europol, also argued that police should receive computer intrusion powers as part of the same discussion.


There are fundamental differences between how the police will have to fight cybercrime and how they fight traditional crime, Oerting said. In the case of traditional crime, old-fashioned police work is effective because there's a crime scene and a perpetrator who had to be there in order to carry out the crime, he said.


Cybercriminals don't have to travel, they don't have to cross any borders, and they conduct their crimes against multiple victims while hidden abroad, Oerting said. "So the police cannot use the normal ways of obtaining evidence as it used to."


In the physical world, a police officer has the power to detain suspects for 24 hours, search their bodies for evidence, search their houses for evidence, use violence against suspects if they don't comply with orders and even shoot them in certain circumstances, Oerting said. "We accept this because we have a transparent system, we have rules and we have the rule of law."


Why is it, then, that if they do some of those same things on a computer, it suddenly becomes such a big privacy issue and those actions should be banned? he asked. "I think that we need to have a balance between privacy, which I think we should respect, and anonymity, which I think is dangerous."


Lawful interception and intrusion, done in a very strict and transparent manner, will be necessary because in many cases cybercriminals will not be from neighboring countries and may not even be from the European Union, Oerting said. "They will be from areas where it will be very hard to gather evidence from, and we might not even be able to call the police force that has the capacity to help us."


Oerting warned against drawing comparisons between the alleged hacking activities of national intelligence agencies such as the U.S. National Security Agency and lawful intrusions conducted by the police, arguing that unlike intelligence services, police forces operate in a much more transparent manner and have better oversight.


Bart Jacobs, a professor of computer security at Radboud University Nijmegen and member of the Dutch National Cybersecurity Council, told the panel he is concerned about the privacy implications of the Dutch legislative proposal, but more fundamentally about how it will affect the integrity of the legal process.


Police should follow technological advances, but not everything that is technologically possible should be done by a technologically advanced society, he said. "For example, in the Netherlands we have the technological capability to build nuclear weapons, but we choose not to do it."


If police officers enter someone's computer, the distinction between passive and active actions they take on that computer is difficult to draw, Jacobs said. Every lawyer defending a suspect accused of a crime based on evidence obtained through such lawful computer intrusion could argue that the evidence was planted there, and it would be difficult for the police to defend themselves against such accusations, he said.


When police are doing roadside checks for speeding cars, those are passive measurements, but when they intrude into a computer, they can do whatever they want, Jacobs said. "Theoretically, by simply being on a computer, you've changed the log files, so that's no longer passive."


"We should think hard about this before we go down this road, because it will complicate the legal process in a very serious way," he said.


Jacobs also had doubts that the Dutch law would only be used for serious cases, especially since the proposal does not restrict the use of such powers to cybercrime investigations.


There's a danger that it will be used very often, and there are historical examples of this happening with other powers granted to the police, Jacobs said. When a law allowing phone tapping was first introduced and debated in the Dutch parliament, the government argued it would hardly ever be used, but today the Netherlands is one of the most active phone tappers in the world, he said.


When asked about the implications of Dutch police officers breaking the laws of foreign countries by hacking into computers located there, Zinn said the Dutch proposal limits the lawful intrusion powers to computers located in the Netherlands and computers whose locations cannot be determined.


If it's determined that a computer is located in another country, the lawful intrusion should not take place, he said.


Oerting was more supportive of the idea of cross-border computer intrusion conducted by law enforcement agencies, saying there are already similar agreements in the physical world. The Schengen Area agreement, an agreement among 25 European countries that abolishes passport and immigration control at their common borders, allows police officers from one country to follow suspects into another country while in hot pursuit, he said.


However, there are also questions about the implications of this law when considering that cybercriminals often use compromised computers to launch attacks.


For example, if during a lawful intrusion the police discover evidence of an unrelated crime possibly conducted by the compromised computer's owner, not by the cybercriminal they were investigating, would they use it to launch a separate investigation? According to Zinn, that might be possible.




Lucian Constantin, IDG News Service Reporter, IDG News Service, IDG News Service


Lucian Constantin writes about information security, privacy and data protection.

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