A beach on Prince Edward Island is littered with dead squid. No one knows why.
As usual, you can also use this squid post to talk about the security stories in the news that I haven't covered.
Read my blog posting guidelines here.
The company ProtectWise just published a long report linking a bunch of Chinese cyber-operations over the past few years.
The always interesting gruqq has some interesting commentary on the group and its tactics.
Lots of detailed information in the report, but I admit that I have never heard of ProtectWise or its research team 401TRG. Independent corroboration of this information would be helpful.
Note: I am an advisor to Protect Democracy on its work related to election cybersecurity, and submitted a declaration in litigation it filed, challenging President Trump's now-defunct "election integrity" commission.
Recently, Apple introduced restricted mode to protect iPhones from attacks by companies like Cellebrite and Greyshift, which allow attackers to recover information from a phone without the password or fingerprint. Elcomsoft just announced that it can easily bypass it.
There is an important lesson in this: security is hard. Apple Computer has one of the best security teams on the planet. This feature was not tossed out in a day; it was designed and implemented with a lot of thought and care. If this team could make a mistake like this, imagine how bad a security feature is when implemented by a team without this kind of expertise.
This is the reason actual cryptographers and security engineers are very skeptical when a random company announces that their product is "secure." We know that they don't have the requisite security expertise to design and implement security properly. We know they didn't take the time and care. We know that their engineers think they understand security, and designed to a level that they couldn't break.
Getting security right is hard for the best teams on the world. It's impossible for average teams.
Watch how someone installs a credit card skimmer in just a couple of seconds. I don't know if the skimmer just records the data and is collected later, or if it transmits the data back to some base station.
Imagine you've gotten your hands on a file of e-mail addresses and passwords. You want to monetize it, but the site it's for isn't very valuable. How do you use it? You convince the owners of the password to send you money.
I recently saw a spam e-mail that ties the password to a porn site. The e-mail title contains the password, which is sure to get the recipient's attention.
I do know, yhhaabor, is your password. You may not know me and you're most likely thinking why you're getting this email, right?
actually, I actually setup a malware on the adult video clips (pornographic material) web site and you know what, you visited this web site to have fun (you know what I mean). While you were watching videos, your web browser began operating as a RDP (Remote Desktop) having a key logger which provided me accessibility to your display and web camera. after that, my software obtained your entire contacts from your Messenger, social networks, and email.
What exactly did I do?
I created a double-screen video. First part shows the video you were viewing (you've got a fine taste ; )), and 2nd part displays the recording of your webcam.
What should you do?
Well, I believe, $2900 is a reasonable price for our little secret. You will make the payment through Bitcoin (if you don't know this, search "how to buy bitcoin" in Google).
This is clever. The valid password establishes legitimacy. There's a decent chance the recipient has visited porn sites, and maybe set up an account for which they can't remember the password. The RDP attack is plausible, as is turning on the camera and downloading the contacts file.
Of course, it all fails because there isn't enough detail. If the attacker actually did all of this, they would include the name of the porn site and attached the video file.
But it's a clever attack, and one I have not seen before. If the attacker asked for an order of magnitude less money, I think they would make more.
EDITED TO ADD: Brian Krebs has written about this, too.
This is weird:
Police in Detroit are looking for two suspects who allegedly managed to hack a gas pump and steal over 600 gallons of gasoline, valued at about $1,800. The theft took place in the middle of the day and went on for about 90 minutes, with the gas station attendant unable to thwart the hackers.
The theft, reported by Fox 2 Detroit, took place at around 1pm local time on June 23 at a Marathon gas station located about 15 minutes from downtown Detroit. At least 10 cars are believed to have benefitted from the free-flowing gas pump, which still has police befuddled.
Here's what is known about the supposed hack: Per Fox 2 Detroit, the thieves used some sort of remote device that allowed them to hijack the pump and take control away from the gas station employee. Police confirmed to the local publication that the device prevented the clerk from using the gas station's system to shut off the individual pump.
Hard to know what's true, but it seems like a good example of a hack against a cyber-physical system.
This summary is as good as any other:
The first big new feature in WPA3 is protection against offline, password-guessing attacks. This is where an attacker captures data from your Wi-Fi stream, brings it back to a private computer, and guesses passwords over and over again until they find a match. With WPA3, attackers are only supposed to be able to make a single guess against that offline data before it becomes useless; they'll instead have to interact with the live Wi-Fi device every time they want to make a guess. (And that's harder since they need to be physically present, and devices can be set up to protect against repeat guesses.)
WPA3's other major addition, as highlighted by the Alliance, is forward secrecy. This is a privacy feature that prevents older data from being compromised by a later attack. So if an attacker captures an encrypted Wi-Fi transmission, then cracks the password, they still won't be able to read the older data -- they'd only be able to see new information currently flowing over the network.
Note that we're just getting the new standard this week. Actual devices that implement the standard are still months away.
Last month, the US Department of Commerce released a report on the threat of botnets and what to do about it. I note that it explicitly said that the IoT makes the threat worse, and that the solutions are largely economic.
The Departments determined that the opportunities and challenges in working toward dramatically reducing threats from automated, distributed attacks can be summarized in six principal themes.
- Automated, distributed attacks are a global problem. The majority of the compromised devices in recent noteworthy botnets have been geographically located outside the United States. To increase the resilience of the Internet and communications ecosystem against these threats, many of which originate outside the United States, we must continue to work closely with international partners.
- Effective tools exist, but are not widely used. While there remains room for improvement, the tools, processes, and practices required to significantly enhance the resilience of the Internet and communications ecosystem are widely available, and are routinely applied in selected market sectors. However, they are not part of common practices for product development and deployment in many other sectors for a variety of reasons, including (but not limited to) lack of awareness, cost avoidance, insufficient technical expertise, and lack of market incentives
- Products should be secured during all stages of the lifecycle. Devices that are vulnerable at time of deployment, lack facilities to patch vulnerabilities after discovery, or remain in service after vendor support ends make assembling automated, distributed threats far too easy.
- Awareness and education are needed. Home users and some enterprise customers are often unaware of the role their devices could play in a botnet attack and may not fully understand the merits of available technical controls. Product developers, manufacturers, and infrastructure operators often lack the knowledge and skills necessary to deploy tools, processes, and practices that would make the ecosystem more resilient.
- Market incentives should be more effectively aligned. Market incentives do not currently appear to align with the goal of "dramatically reducing threats perpetrated by automated and distributed attacks." Product developers, manufacturers, and vendors are motivated to minimize cost and time to market, rather than to build in security or offer efficient security updates. Market incentives must be realigned to promote a better balance between security and convenience when developing products.
- Automated, distributed attacks are an ecosystem-wide challenge. No single stakeholder community can address the problem in isolation.
The Departments identified five complementary and mutually supportive goals that, if realized, would dramatically reduce the threat of automated, distributed attacks and improve the resilience and redundancy of the ecosystem. A list of suggested actions for key stakeholders reinforces each goal. The goals are:
- Goal 1: Identify a clear pathway toward an adaptable, sustainable, and secure technology marketplace.
- Goal 2: Promote innovation in the infrastructure for dynamic adaptation to evolving threats.
- Goal 3: Promote innovation at the edge of the network to prevent, detect, and mitigate automated, distributed attacks.
- Goal 4: Promote and support coalitions between the security, infrastructure, and operational technology communities domestically and around the world
- Goal 5: Increase awareness and education across the ecosystem.
Researchers at the University of California, Irvine, are able to recover user passwords by way of thermal imaging. The tech is pretty straightforward, but it's interesting to think about the types of scenarios in which it might be pulled off.
Abstract: As a warm-blooded mammalian species, we humans routinely leave thermal residues on various objects with which we come in contact. This includes common input devices, such as keyboards, that are used for entering (among other things) secret information, such as passwords and PINs. Although thermal residue dissipates over time, there is always a certain time window during which thermal energy readings can be harvested from input devices to recover recently entered, and potentially sensitive, information.
To-date, there has been no systematic investigation of thermal profiles of keyboards, and thus no efforts have been made to secure them. This serves as our main motivation for constructing a means for password harvesting from keyboard thermal emanations. Specifically, we introduce Thermanator, a new post factum insider attack based on heat transfer caused by a user typing a password on a typical external keyboard. We conduct and describe a user study that collected thermal residues from 30 users entering 10 unique passwords (both weak and strong) on 4 popular commodity keyboards. Results show that entire sets of key-presses can be recovered by non-expert users as late as 30 seconds after initial password entry, while partial sets can be recovered as late as 1 minute after entry. Furthermore, we find that Hunt-and-Peck typists are particularly vulnerable. We also discuss some Thermanator mitigation strategies.
The main take-away of this work is three-fold: (1) using external keyboards to enter (already much-maligned) passwords is even less secure than previously recognized, (2) post factum (planned or impromptu) thermal imaging attacks are realistic, and finally (3) perhaps it is time to either stop using keyboards for password entry, or abandon passwords altogether.
This technique abuses the SetWindowsSubclass function -- a process used to install or update subclass windows running on the system -- and can be used to modify the properties of windows running in the same session. This can be used to inject code and drop files while also hiding the fact it has happened, making it a useful, stealthy attack.
It's likely that the attackers have observed publically available posts on PROPagate in order to recreate the technique for their own malicious ends.
The Intercept has a long story about the NSA's domestic interception points.
Includes some new Snowden documents.
At least right now, facial recognition algorithms don't work with Juggalo makeup.
The California legislature unanimously passed the strongest data privacy law in the nation. This is great news, but I have a lot of reservations. The Internet tech companies pressed to get this law passed out of self-defense. A ballot initiative was already going to be voted on in November, one with even stronger data privacy protections. The author of that initiative agreed to pull it if the legislature passed something similar, and that's why it did. This law doesn't take effect until 2020, and that gives the legislature a lot of time to amend the law before it actually protects anyone's privacy. And a conventional law is much easier to amend than a ballot initiative. Just as the California legislature gutted its net neutrality law in committee at the behest of the telcos, I expect it to do the same with this law at the behest of the Internet giants.
So: tentative hooray, I guess.