Lawful Access to Encrypted Data Act would require encryption backdoors - Android Authority
Lawful Access to Encrypted Data Act would require encryption backdoors - Android Authority |
- Lawful Access to Encrypted Data Act would require encryption backdoors - Android Authority
- How Does HTTPS Work? - Hashed Out by The SSL Store™ - Hashed Out by The SSL Store™
- The Android 10 Privacy and Security Upgrades You Should Know About - WIRED
| Lawful Access to Encrypted Data Act would require encryption backdoors - Android Authority Posted: 26 Jun 2020 12:00 AM PDT 
US Senators have introduced a new anti-encryption bill called the "Lawful Access to Encrypted Data Act," which would require makers of encrypted devices and operating systems to leave a backdoor that could allow law enforcement to access encrypted information when requested. Basically, this means that all manufacturers would need to leave a backdoor in their encryption, which defeats the entire point of encryption in the first place. Lawful Access to Encrypted Data ActThe Lawful Access to Encrypted Data Act would bring an end to warrant-proof encryption in devices, platforms, and systems, which could be a huge deal for both companies who make encrypted services and devices and the users who enjoy the privacy offered by them, according to the plan laid out in the bill. Senate Judiciary Committee Chairman Lindsey Graham said, "Terrorists and criminals routinely use technology, whether smartphones, apps, or other means, to coordinate and communicate their daily activities." Graham went on: "This bill will ensure law enforcement can access encrypted material with a warrant based on probable cause and help put an end to the Wild West of crime on the internet." There are a few issues that would be a problem for end-users. First, there's the argument of whether this is in violation of any rights to privacy. Second, there's the issue that once a backdoor is purposefully left in for the use by law enforcement, that same backdoor could be found and exploited by more malicious individuals, thus making the encryption all but useless. According to Bitcoin.com, Riana Pfefferkorn, associate director of surveillance and cybersecurity at the Center for Internet and Society at Stanford Law School, said that the bill is "a full-frontal nuclear assault on encryption in the United States." That's just about as terrifying as it sounds. Even if you're not worried about the government gaining access to your private information because you're not doing anything illegal, there are far worse people than the government that you need to worry about.  Editor's Pick How does encryption work? – Gary explainsYou probably use encryption, in one form or another, every day. You might not know that you are, but you are. And my guess is that you don't give it a second thought. Do you … There are those who question the true intent of the Lawful Access to Encrypted Data Act. For example, Andi Wilson Thompson, a senior policy analyst at New America's Open Technology Institute, says, "This bill is just another attack on encryption, and trying to portray it as a 'balanced solution' that could protect privacy is just an attempt to distract from its true intent." Thompson also added that "This bill would ensure that companies that provide products and services used by millions in the United States have to offer weaker encryption technology, putting all of their users at risk." That's some scary stuff when you sit back and think about how much you have stored on the internet and how much of it is private in nature. It's not like this is a theoretical issue, either. There have already been multiple instances of the government demanding encryption keys from major tech companies where the companies refused. Both Telegram and Apple had this happen, and the privacy of the users was protected. If this new bill goes through, that wouldn't happen anymore in the US, as the companies in question wouldn't be allowed to forbid access. More posts about Cybersecurity | ||||||
| How Does HTTPS Work? - Hashed Out by The SSL Store™ - Hashed Out by The SSL Store™ Posted: 26 Oct 2020 12:00 AM PDT  Loading...We all know that HTTPS = secure. But do you know how HTTPS works under the hood? Let's take a look at how HTTPS works to make the internet safer for all of us…95% of webpages viewed in the US are viewed using HTTPS. (That's according to Google Chrome user data via the Google Transparency report.) Other countries also overwhelmingly use HTTPS URLs — 93% in Germany, 85% in Japan, and 85% in India. HTTPS has been adopted worldwide as the preferred protocol for most websites. But just how does HTTPS work and what does it do? If you're reading this article, you probably already know that the "S" in HTTPS means secure. You've likely looked for https:// (or a padlock icon) at the beginning of a URL to confirm it was secure before entering your credit card details online. But what does HTTPS do for the average internet user? And how does HTTPS work in a more technical sense? Let's hash it out. How HTTPS works is actually a pretty big topic, so we'll break it down into several sections–starting with the basics. If you're already somewhat familiar with HTTPS and want to skip around, you can use this table of contents to jump to the part that interests you. When you go to a website that starts with https://, that tells you two very specific things:
 Important note about terminology: you'll hear the terms "SSL" and "TLS" used in conjunction with HTTPS. A few quick facts will make these terms easier to keep straight:
Let's dig a little deeper into how HTTPS works to provide these two security benefits… HTTPS Authentication Ensures You're Connected to the Correct Website (And That's More Important Than It Sounds)As mentioned, the first thing that HTTPS does is authenticate the website to verify that your browser is connected to the correct website. If you typed in amazon.com, your browser uses HTTPS to ensure that the website you're connected to is the real amazon.com (not a fake website run by a hacker in a back alley in San Fransokyo). Why HTTPS Authentication Is ImportantNow, you may be wondering why this is necessary — "can't I just look at the URL in my browser's address bar?" If it says amazon.com and it looks like amazon.com, it must be amazon.com, right? Not necessarily.  Your browser's address bar is always a good place to check, but it's not foolproof — it's possible that you could type http://www.amazon.com into your browser's address bar and get a website that looks like Amazon.com… but is actually a fake website run by a hacker. Hackers can use DNS poisoning, malware, or other attack methods so your browser invisibly connects to the wrong website server. So while it looks like you're connecting to a legitimate URL in your browser bar, you're actually on a fake website run by a hacker. Let's consider a real-life example. Hackers used DNS poisoning to take a legitimate domain name and point visitors to a fake website where they stole $150K from MyEtherWallet users.  How Do DNS Attacks Like This Work?First of all, we need to briefly discuss how your computer actually connects to websites. When you type in amazon.com, your computer doesn't actually understand "amazon.com" as an address it can connect to. Amazon.com is the human-readable address, the actual address your computer connects to is the IP address (which looks like this: 176.32.103.205). Your computer needs to lookup amazon.com's IP address using the DNS system before it can connect to the amazon.com web server. Here's a simplified representation of the process:  When you visit a website, your computer uses the DNS system to get the IP address of the website you're trying to visit. Your computer is actually connecting to an IP address, not to an address like amazon.com. In a DNS poisoning attack, your computer is given an incorrect IP address, which means that your computer connects you to the wrong server. Your computer thinks it's amazon.com and you think it's amazon.com, but it's not. Want to read further? If you'd like to read the in-depth version of how DNS poisoning attacks work, read our guide on DNS Poisoning Attacks. The good news is that HTTPS is an effective defense against hacker tricks like DNS poisoning. How? Let's dive into how HTTPS works to ensure that you're on the correct website. How HTTPS Authentication WorksSo, how does HTTPS ensure that you're connected to the correct website? Your browser uses an SSL/TLS certificate and the certificate authority that issued it to authenticate each HTTPS website that you visit. Here's how it works… Step 1: Getting a CertificateFirst, the website needs to have an SSL certificate issued by a publicly trusted certificate authority. An SSL certificate is a lot like a passport — but it's for websites, not people. An SSL certificate includes details such as:
To get a valid SSL certificate, the website owner will have to go through a few steps:
Once those steps are completed, the certificate authority issues an SSL certificate to the website owner. This certificate is installed on the web server and is automatically provided every time someone visits the website via an https:// URL. Step 2: "Passport, Please!"When you visit an HTTPS website, the website sends its SSL/TLS certificate to your web browser. Let's use our website as an example. If you click on the padlock in your browser, then click to view certificate details, you can see our website's certificate and the information it includes.  If you open the Details tab, you'll see more information about the website and the organization that runs it, like this:  Some websites (like ours) have certificates that also show their company details (such as company name, location, etc.). These are called organization validation (OV) or extended validation (EV) certificates. The company details are also verified, so you can be 100% confident you know exactly who is running the website you're on. Step 3: Verifying the CertificateNow we come to the critical step — verifying the website's SSL certificate. Just because the website presents an SSL certificate doesn't mean that your browser should trust it. After all, as Albert Einstein famously said:  Fortunately, your browser has a way it can verify the website's SSL certificate to ensure it's accurate and not a fake. Specifically, your browser will verify whether:
If the certificate passes those checks, your browser will display the website, along with https:// and a padlock next to the URL. If you look at our website's certificate, you'll see that it is issued by DigiCert. Our website's certificate includes a digital signature from DigiCert that your browser can use to verify the certificate is a valid and was issued by DigiCert.  We'll dive into more technical details later, but the main point for now is: your browser checks each website's HTTPS credentials, just like airport authorities check your passport before you can board an airplane. HTTPS Encryption Ensures Others Can't Spy on Your CommunicationsThe second thing that HTTPS does is encrypt all information that's sent between you and the website you're visiting. This ensures that nobody (other than you and the website you're connected to) can read your data as it's sent across the internet. Let's use amazon.com again as an example. Say, you're shopping for a lovely Nicholas Cage sequin pillow:  You want to place your order online, but security and privacy are very important to you. You don't want anyone to steal your credit card details, and perhaps more importantly you don't want anyone to know that you sleep with a Nicholas Cage pillow on your bed. (I won't judge you!) Because amazon.com uses HTTPS, that means all data sent to/from amazon.com is encrypted before being sent. Let's a take a brief look at how HTTPS works on the encryption side… How HTTPS Encryption WorksIn order to buy that Nicholas Cage pillow, you need to enter your credit card details:  When you enter your credit card numbers in the above field and click "Add your card," your credit card details are submitted to Amazon.com. But first, your browser will encrypt the data. This means that:
The data will travel across the internet in its encrypted (unreadable) state. Once it reaches amazon.com, Amazon would decrypt the data so it can read your credit card number to process your payment:  You might be wondering — what exactly is encrypted text (aka ciphertext)? Here's an example, showing actual encrypted data (as you can see, it's gibberish unless you have the decryption key to read it):
Encryption makes it safe to send encrypted data across the internet. What HTTPS Encryption Doesn't DoHere's one important distinction to make — HTTPS encryption only protects your data while it's traveling to the website (i.e. amazon.com in this case). Once the data reaches the website, it'll be decrypted and then it's up to the website owner what happens to your data from that point onward. That's why it's so important to only shop on websites you trust to protect your data after they receive it. This is an advantage of OV/EV SSL certificates. Because these certificates contain information about the organization that runs the website, it's easier for you to know exactly who you're sending your information to. But Wait… How/Why Would Anyone Be Spying on My Communications?You might be wondering how anyone would spy on the data you're sending over the internet. If I'm submitting something to amazon.com, how would anyone else even have the opportunity to see that? I'm sending it directly to amazon.com, right? Actually, no…you're not. Most people think that sending information online works something like this:  "I'm talking directly to the other party, and there's nobody else around to hear…right?" Not quite. In reality, sending data over the internet is more like a game of telephone, where each party whispers the message to the next until it reaches your intended recipient. You have no idea how many people heard your message along the way or what they're doing with it.  When you send data across the internet, it's routed through dozens of DNS servers, routers, and waypoints… each controlled by different governments, ISPs, and other companies. This graphic shows the actual route data took when sent between Harvard researchers in Ghana and Mongolia:  As one of the researchers pointed out, that's more than 70 different computers owned by "dozens and dozens of organizations, from Internet architects to ISPs, located in at least 20 different legal jurisdictions." It's pretty likely that there's one or more "leaks" along that route. For example:
Fortunately, HTTPS encryption keeps your data safe, no matter who owns those 70+ computers along the way or what they try to do with the data that passes through. If your data is encrypted, those computers can't see or read the actual data you're sending. So, we've covered what HTTPS does and how HTTPS works at a high level — now it's time to dive into the nitty-gritty details of how HTTPS works. HTTP vs. HTTPSAs we alluded to before, HTTPS is simply the secure version of HTTP. You can think of it as HTTP communication that's done over a secure channel. If you're familiar with how HTTP works, the fundamentals work the same with HTTPS:
One key difference to be aware of is that HTTP/2 (a newer, faster version of HTTP) only works over HTTPS. How HTTPS Works Under the Hood: HTTPS Runs on PKIBefore we can dive deeper into how HTTPS works, we need to go over a few technical details of the system that HTTPS, SSL, and TLS are all built on top of — public key infrastructure, or PKI. Just like your car runs on an internal combustion engine, HTTPS and TLS/SSL run using PKI. PKI is a system made up of five main components, including:
Let's briefly cover how each of these work, so you can better understand how HTTPS works. Digital CertificatesWe already covered these — they're like passports for organizations/websites. Public Keys & Private KeysFirst, quick review: when we encrypt data, we use an encryption key to turn readable text into unreadable text (called ciphertext), like this: Hello! >>> Encrypted with key "mykey" >>> HgPpAhtl We can do the same in reverse to decrypt the ciphertext: HgPpAhtl >>> Decrypted with key "mykey" >>> Hello! Notice that we're using the same key to encrypt and decrypt the text? That's called symmetric encryption. Asymmetric encryption is a bit different—it uses two different keys, one for encryption and one for decryption:
Symmetric encryption uses the same private key for encryption and decryption, whereas asymmetric encryption uses a public/private key pair:  That's critical for SSL/TLS to work. If you have amazon.com's certificate and public key, you can send a message that only amazon.com can read. (This, by extension, also means that you can easily confirm that the server you're talking to is actually amazon.com. If they can understand a message encrypted with amazon.com's public key, that means they have amazon.com's private key…which must mean they are amazon.com!) To learn more check out our blog post on asymmetric and symmetric encryption. Certificate AuthoritiesWe already covered these above — remember, certificate authorities are companies that are trusted to issue SSL certificates. Digital SignaturesDigital signatures are a way of proving who/where a piece of software or document came from. If you have an author's public key, you can verify anything they signed with their private key. This is critical, because this is how your browser can tell which certificate authority really issued an SSL certificate. Let's go back to the SSL certificate for our website, thesslstore.com. That certificate was issued by DigiCert, so it has DigiCert's digital signature on the SSL certificate: If your browser has DigiCert's public key, it can verify that our certificate really was issued by DigiCert. Of course, this raises an important question… does your browser have DigiCert's public key? Root StoresIn order to verify a website's SSL certificate, your browser will need the certificate authority's public key. Fortunately, there's a system setup for that — root stores. Every device has what's called a root store or trust store. The root store contains the digital certificates and associated public keys of every certificate authority that it trusts. Every device comes with a default list of certificate authorities that it trusts — you can modify this list if you want, but very few people do. Let's look at the certification path for our SSL certificate. Note that there are three certificates: 
These three certificates together are called the "chain of trust" and are how your browser can verify any website's SSL certificate to ensure it is valid and trusted. How HTTPS Works for Website Owners: How to Enable HTTPS on Your WebsiteOK, so know you understand the basic components of PKI, and you want to enable HTTPS on your website. Let's cover how you can do that. All popular web servers (such as Apache, NGINX, and IIS) and website control panels (such as cPanel or Plesk) include support for HTTPS, so you don't need to build or install custom software to handle HTTPS communication. You just need to install an SSL certificate for your website then update your site settings to use HTTPS. Step 1: Acquire an SSL/TLS CertificateYour SSL certificate proves that your website (let's say yoursite.com) is the real yoursite.com. You need to get an SSL certificate issued by a trusted certificate authority. If you acquire a certificate from a certificate authority that your website visitor's browser doesn't automatically trust, they'll see a warning message like this.  Tip: All of the SSL certificates sold on thesslstore.com are trusted by all modern browsers, operating systems, and devices. There are a few steps you'll need to complete to get your SSL certificate. Fortunately, these can be done in as little as a few minutes: Generate a certificate signing request (CSR). You can usually do this in your web hosting control panel. This also generates the public key and private key that are required for HTTPS to work. Tip: our knowledgebase provides CSR generation guides for 20+ different hosting platforms and server types. This screenshot shows what the CSR generation form looks like in cPanel:  Submit the certificate signing request to your SSL provider / certificate authority. Once you submit the CSR, the certificate authority will begin the process required to issue an SSL certificate. Complete the certificate authority's validation process. This will vary depending on the type of certificate you've purchased, but at minimum you'll need to prove that you own/manage your domain. See our SSL validation guide for more details. Once you've completed those steps, the certificate authority will send your SSL certificate to you. Step 2: Install the SSL Certificate on Your WebsiteNow that you have your SSL certificate, you'll need to install it on your website. Again, you can usually do this using your web hosting control panel. Here's what the installation form looks like for cPanel:  Tip: See our knowledgebase for installation guides for 20+ server and web hosting platforms. Step 3: Change Your Site Settings to Use HTTPSYou've installed the SSL certificate on your website, so your website is now capable of using HTTPS. Now you just need to tell your website that you want it to use HTTPS every time (not HTTP). How to do this will depend on how your website is set up, but you need to do three things:
Now that you've setup HTTPS on your website, visitors to your website will be able to enjoy the benefits of HTTPS: authentication and encryption. But how does HTTPS work to do that at the technical level? Let's dive in deeper, but first… How HTTPS Works for Website Users: The TLS HandshakeAs we covered in the first part of this article, when you visit an HTTPS website, your browser is authenticating the website and encrypting the data sent to and from the client: To do that, your browser and the website server need to create a secure connection to communicate through. Setting up the secure connection is a process called the SSL/TLS handshake. Creating a Secure Connection with the SSL/TLS HandshakeSo, you've typed https://www.amazon.com into your browser bar — how does your browser setup a secure HTTPS connection to amazon.com? Technically speaking, HTTPS is the same as HTTP except the communication happens over a secure SSL/TLS connection. To set up that secure SSL/TLS connection, your browser and the server need to go through what is called the SSL/TLS handshake process. Note: In this article, we'll be covering the basics of the TLS 1.2 handshake process (it's the most commonly used). If you want a more detailed coverage, including how the newer (and faster) TLS 1.3 handshake works, check out our article Taking a Closer Look at the SSL/TLS Handshake. The following illustration shows all of the steps of the TLS handshake (how your browser and server setup a secure connection). The client (your browser) is on the left, and the web server is on the right:  Let's go over what happens in these steps: Steps 1-2: Hello & Cipher Suites!The browser and server say hello and agree on which cipher suite (encryption algorithm) to use. (HTTPS/SSL/TLS supports multiple cipher suites.) Fun fact: Some browsers (such as Firefox) let you easily see what cipher suite your connection to a specific website uses. In Firefox, click the padlock, then click the ">", then click "More Information" to see information like this:  If you want to know how to interpret what that info means, check out our article on Cipher Suites: Ciphers, Algorithms and Negotiating Security Settings. Steps 3-5: Certificate & Key ExchangeThe server sends its SSL certificate and intermediate certificate, along with the associated public keys, to the browser. As covered above in the "PKI" section, the browser will verify the SSL certificate based on its digital signature and the root certificates the browser trusts. If any of the checks fail, the connection will abort and an error message will display. Provided that none of the checks fail, at this point, we technically have a secure communication channel:
But the connection can only be used securely one way (browser –> server), so we're not done yet… Steps 6-10: Setting Up Symmetric EncryptionIt turns out that symmetric encryption (using the same key for encryption and decryption) is actually more efficient, so the browser and server will now create a new, shared encryption key that they can use for encryption and decryption moving forward. (Exactly how the browser and server create a shared session key depends on the cipher suite [encryption methods] being used.) Once the session key is generated, the TLS handshake process completes. Your browser and the server will use the session key to encrypt and decrypt all data that they exchange. Congratulations, your browser now has a two-way secure communication channel for secure HTTPS communication with the web server. You can send and receive data securely, without worrying about someone in-route spying on your info. Handy HTTPS Usage Tips For UsersNow you know about what HTTPS does and even the technical details of how HTTPS works. Here are a few practical tips and things to keep in mind when visiting HTTPS websites. Google Chrome Hides the HTTPSIf you're using Chrome as your browser, keep in mind that Google actually hides the https:// part of the URL. Here are three quick ways you can verify if a webpage is HTTPS: Look for the padlock:  Double click on the URL to see the https://:  Make sure there isn't a "Not Secure" label:  You Can Verify Company Details Using Their SSL CertificateAs we alluded to earlier, some websites' SSL certificates contain verified company details so you can identify the exact company that runs the website. This can be useful to avoid scam websites or simply to have greater transparency on who you're dealing with online. (With so many companies having dozens of websites out there, sometimes it's hard to figure out which ones are official websites and which ones aren't.) If the website has an EV SSL certificate, you can view the company details by just clicking on the padlock:  If the website has an OV SSL certificate, you'll need to open up the SSL certificate details and view the subject field:  This information has been verified by the certificate authority, so it can't be faked. This is why it's crucial for businesses that handle sensitive data to use SSL/TLS certificates with organizational validation as a minimum. Be Very Careful Proceeding Past an HTTPS WarningIf you visit a website and see a warning like this, it may be tempting to just click past the warning to get to the website you're trying to visit. But be very careful doing this — it can trigger warnings like this when a hacker is performing a man-in-the-middle (MitM) attack on your connection. (For example, showing you a fake website that looks like the real website you're trying to visit.)  In many cases, these errors are triggered due to the website letting its certificate expire or not configuring their server correctly. But occasionally they're for a more sinister reason — a hacker is trying to spy on your connection or trick you! So…That's How HTTPS WorksI hope you've found this article useful. There are a ton of details we could cover on how HTTPS works, we tried to make this article accessible and easy to understand, while still covering the important details. Hopefully, you found the level of detail "just right" (like Goldilocks' porridge)! Still have more questions about "how does HTTPS work?" Or do you have suggestions for additional details we should include or points we can further clarify? Drop a note in the comments!  | ||||||
| The Android 10 Privacy and Security Upgrades You Should Know About - WIRED Posted: 22 Aug 2019 12:00 AM PDT  Google has long grappled with data privacy gaffes and internal instability, but through it all the company has consistently improved the security and privacy of Android. Given the operating system's 2.5 billion users, that's no small task. With the release of Android 10 in just a few weeks, the new iteration of data and privacy features is coming into even sharper focus. The privacy and security tools new to Android 10—Google has finally ditched the dessert-themed names—aren't the most outwardly flashy. The Android team has focused instead on labor-intensive technical changes and upgrades that will have an outsized effect. And the improvements touch numerous parts of the system, from how it deploys encryption to how settings are organized and applications are quarantined from each other. "I don't think security and privacy are a new theme just in Android 10," says Charmaine D'Silva, an Android product manager who works on privacy. "But when we thought about planning for the release we definitely thought that we should focus more on the space as we get more mature as a product." Privacy Maze What you'll notice most: Android 10's attempts to give you more control over your data. As an open source platform, Android can usually be implemented in whatever way manufacturers want, with few requirements about how the user interface looks or functions. But with Android 10, Google will mandate across all manufacturers that the Privacy and Location menus are in the same place in the Android Settings menu no matter what Android smartphone you're on. This way, users of any Android 10 device can always find these options in the same digital location, instead of navigating through confusing, unfamiliar menus. Lily Hay Newman covers information security, digital privacy, and hacking for WIRED. Android 10 introduces other requirements as well, like requiring that apps request permissions and re-check your choices more often for things like accessing your location. And Android 10 will similarly also introduce geofencing features where instead of just turning that type of location-tracking on or off, you can select an option where geofencing only works when an app is actively open on your screen. Seeking to improve its stance on another controversial topic, Android 10 also incorporates new restrictions on an app's ability to access unchangeable device identifiers, like device serial numbers or other industry IDs. Instead, Google will now require developers to use resettable identifiers to keep track of users. That way, if these digital fingerprints are ever compromised, or if you want to wipe your digital slate clean, there's a mechanism to do that. The topic is especially relevant thanks to increased awareness about user tracking for ad targeting, but the industry has been debating the threat of collecting permanent device identifiers for nearly a decade. Android has a changeable "Advertising ID" and Apple's iOS offers a similar "Identifier for Advertisers." Apple started requiring that advertisers use only the IDFA in 2013, and Google began mandating advertiser use of its AAID in 2014. Now those measures are increasingly expanding outside of advertising. In Android 10, developers still have relatively persistent ID options—so you can't, say, claim a promotion in an app, delete the app, re-install it, and instantly claim it again—but the goal is to strike more of a balance between a developer's ability to keep track of users and a user's ability to take back some control. "We wanted to allow users to reset them when they don't want to be tracked," Android's D'Silva says. Many changes in Android 10 highlight the tension between creating a platform to be as flexible and open as possible, while still upholding some security and privacy requirements. D'Silva emphasizes that the transition to resettable IDs involved extensive collaboration with manufacturers and developers. Similarly, Android 10 places new restrictions on apps' ability to move from running in the background to asserting themselves in the foreground for users. In the case of, say, an alarm clock app, developers will still have the option to alert you that an alarm is going off, but will no longer be able to take over the whole screen if you're doing something else. The goal is to reduce interruptions and, particularly, unexpected surprises. But for developers, such changes can feel like an erosion of Android's open source roots.  |
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