Parler’s website suddenly appeared online Sunday with a message from its CEO, John Matze, who said, “Hello world, is this thing on?” The message suggests Parler was able to find another hosting service, coming about a week after Amazon Web Services booted the social media website from its services, taking the site down. It came as Parler—billed as a “free speech” platform—was seeing an unprecedented surge in users as prominent conservatives, among others, were being banned from Twitter, Facebook, and other platforms. Matze also issued a temporary status update. “Now seems like the right time to remind you all—both lovers and haters—why we started this platform,” Matze. “We believe privacy is paramount and free speech essential, especially on social media. Our aim has always been to provide a nonpartisan public square where individuals can enjoy and exercise their rights to both. We will resolve any challenge before us and plan to welcome all of you back soon. We will not let civil discourse perish!” Amazon Web Services’ rationale behind jettisoning Parler was due to a lack of moderation and came in the backdrop of the Jan. 6 U.S. Capitol riots. Parler, in a court filing, citing text messages between Matze and an Amazon representative, claimed Amazon was primarily concerned with whether President Donald Trump would migrate to Parler after his Twitter account was banned last week.

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LAWMAKERS AND LAW enforcement agencies around the world, including in the United States, have increasingly called for backdoors in the encryption schemes that protect your data, arguing that national security is at stake. But new research indicates governments already have methods and tools that, for better or worse, let them access locked smartphones thanks to weaknesses in the security schemes of Android and iOS. Cryptographers at Johns Hopkins University used publicly available documentation from Apple and Google as well as their own analysis to assess the robustness of Android and iOS encryption. They also studied more than a decade's worth of reports about which of these mobile security features law enforcement and criminals have previously bypassed, or can currently, using special hacking tools. The researchers have dug into the current mobile privacy state of affairs and provided technical recommendations for how the two major mobile operating systems can continue to improve their protections. “It just really shocked me, because I came into this project thinking that these phones are really protecting user data well,” says Johns Hopkins cryptographer Matthew Green, who oversaw the research. “Now I’ve come out of the project thinking almost nothing is protected as much as it could be. So why do we need a backdoor for law enforcement when the protections that these phones actually offer are so bad?” Before you delete all your data and throw your phone out the window, though, it's important to understand the types of privacy and security violations the researchers were specifically looking at. When you lock your phone with a passcode, fingerprint lock, or face recognition lock, it encrypts the contents of the device. Even if someone stole your phone and pulled the data off it, they would only see gibberish. Decoding all the data would require a key that only regenerates when you unlock your phone with a passcode, or face or finger recognition. And smartphones today offer multiple layers of these protections and different encryption keys for different levels of sensitive data. Many keys are tied to unlocking the device, but the most sensitive ones require additional authentication. The operating system and some special hardware are in charge of managing all of those keys and access levels so that, for the most part, you never even have to think about it. With all of that in mind, the researchers assumed it would be extremely difficult for an attacker to unearth any of those keys and unlock some amount of data. But that's not what they found. "On iOS in particular, the infrastructure is in place for this hierarchical encryption that sounds really good," says Maximilian Zinkus, a Ph.D. student at Johns Hopkins who led the analysis of iOS. "But I was definitely surprised to see then how much of it is unused," Zinkus says that the potential is there, but the operating systems don't extend encryption protections as far as they could. When an iPhone has been off and boots up, all the data is in a state Apple calls “Complete Protection.” The user must unlock the device before anything else can really happen, and the device's privacy protections are very high. You could still be forced to unlock your phone, of course, but existing forensic tools would have a difficult time pulling any readable data off it. Once you've unlocked your phone that first time after a reboot, though, a lot of data moves into a different mode—Apple calls it “Protected Until First User Authentication,” but researchers often simply call it “After First Unlock.” If you think about it, your phone is almost always in the AFU state. You probably don't restart your smartphone for days or weeks at a time, and most people certainly don't power it down after each use. (For most, that would mean hundreds of times a day.) So how effective is AFU security? That's where the researchers started to have concerns. For more visit OUR FORUM.