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The Linux Foundation and the LiMo Foundation issued a joint statement on Wednesday morning to announce the launch of Tizen, a new Linux-based open source mobile operating system. The platform's application stack and third-party developer frameworks will be built around standards-based Web technologies. The new Tizen website says that Intel and Samsung are jointly backing the effort. The new platform effort will displace the unsuccessful MeeGo project, an open source mobile operating system that was launched last year when Intel and Nokia sought to unify their respective mobile Linux platforms with the help of the Linux Foundation. MeeGo began to unravel when Nokia abandoned Linux in favor of Microsoft's Windows Phone 7 operating system.

Additional insiders have stepped forward to shed more light into Microsoft’s troubled acquisition of Danger, its beleaguered Pink Project, and what has become one of the most high profile Information Technology disasters in recent memory.

The sources point to longstanding management issues, a culture of “dogfooding,” and evidence that could suggest the issue was a deliberate act of sabotage.

Beyond T-Mobile, observers say Microsoft’s problems with Danger are likely to reflect poorly on the company’s own Azure Services cloud computing initiative, as well as its MyPhone cloud service for Windows Mobile phones. The sidelining of the Pink Project is also a likely setback to Microsoft’s ongoing relationship with Verizon, which has been an early advocate of Microsoft’s other mobile related technologies, including the DRM used in Verizon’s VCast music and media service.

1. U.S. and European antitrust cases put lawyers and non-technologists in charge of important final product decisions.

The company long resisted releasing pertinent interoperability information in the United States. On the European Continent, this resistance led to huge fines. Meanwhile, Microsoft steered away from exclusive contracts and from pushing into adjacent markets.

Harris Corp.’s Stingray surveillance device has been one of the most closely guarded secrets in law enforcement for more than 15 years. The company and its police clients across the United States have fought to keep information about the mobile phone-monitoring boxes from the public against which they are used. The Intercept has obtained several Harris instruction manuals spanning roughly 200 pages and meticulously detailing how to create a cellular surveillance dragnet. Harris has fought to keep its surveillance equipment, which carries price tags in the low six figures, hidden from both privacy activists and the general public, arguing that information about the gear could help criminals. Accordingly, an older Stingray manual released under the Freedom of Information Act to news website TheBlot.com last year was almost completely redacted. So too have law enforcement agencies at every level, across the country, evaded almost all attempts to learn how and why these extremely powerful tools are being used — though court battles have made it clear Stingrays are often deployed without any warrant. The San Bernardino Sheriff’s Department alone has snooped via Stingray, sans warrant, over 300 times.

The documents described and linked below, instruction manuals for the software used by Stingray operators, were provided to The Intercept as part of a larger cache believed to have originated with the Florida Department of Law Enforcement. Two of them contain a “distribution warning” saying they contain “Proprietary Information and the release of this document and the information contained herein is prohibited to the fullest extent allowable by law.”  Although “Stingray” has become a catch-all name for devices of its kind, often referred to as “IMSI catchers,” the manuals include instructions for a range of other Harris surveillance boxes, including the Hailstorm, ArrowHead, AmberJack, and KingFish. They make clear the capability of those devices and the Stingray II to spy on cellphones by, at minimum, tracking their connection to the simulated tower, information about their location, and certain “over the air” electronic messages sent to and from them. Wessler added that parts of the manuals make specific reference to permanently storing this data, something that American law enforcement has denied doing in the past.

One piece of Windows software used to control Harris’s spy boxes, software that appears to be sold under the name “Gemini,” allows police to track phones across 2G, 3G, and LTE networks. Another Harris app, “iDen Controller,” provides a litany of fine-grained options for tracking phones. A law enforcement agent using these pieces of software along with Harris hardware could not only track a large number of phones as they moved throughout a city but could also apply nicknames to certain phones to keep track of them in the future. The manual describing how to operate iDEN, the lengthiest document of the four at 156 pages, uses an example of a target (called a “subscriber”) tagged alternately as Green Boy and Green Ben:

"We've put it in a user-installable module. The user buys the card and just plugs it into any device that has a slot," Fiennes explained." All a developer needs to do is add a socket and a 3-pin Atmel ID chip to their product. That's 75 cents: 30 cents for the ID chip and 45 cents for the socket." This assumes the availability of 3.3 V. "But given that most things you want to control from the Internet are electrical, we think that's reasonable," he said. If not, developers can include a battery.

Fiennes demonstrated a power adaptor with an Imp socket. He installed a card and an appropriately labeled block appeared in a browser window. Fiennes plugged in a chain of decorative lights and we clicked on the box on our browser. After clicking, the box text went from "off" to "on." Over Skype, we could see the lights had come on.Fiennes emphasized that control need not be manual and could be linked to other Internet apps such as weather reports, or to Electric Imp sensor nodes that monitor conditions such as humidity.A second example is an Electric Imp enabled passive infrared sensor. Fiennes demonstrated how it could be programmed to report the time and date of detected motion to a client's Web pages on the Electric Imp server. In turn, those pages could be programmed to send an alarm to a mobile phone. The alarm could also be triggered if no motion was detected, allowing the sensor to serve as a monitor for the elderly in their homes, for example. If there is no activity before 9 a.m., a message is sent to a caregiver.

The final example is an Electric Imp washing machine. Machine operation can be made conditional on a number of variables, including the price of electricity. "Every washing machine has microcontroller and that microcontroller has a lot of data," said Fiennes. "That data could be sent back to a washing machine service organization that could call the client up before the washing machine breaks down."

The multitude of services gives Microsoft an early edge when it comes to cloud, but the channel-enablement model for Cisco can create much greater scale than a direct to line-of-business model. The key is ensuring its resellers are fully trained in selling to line-of-business, which isn't a simple undertaking. Bottom line: With regard to cloud, Microsoft has a faster route to market, but Cisco's should give it an advantage over time.

The smartphone market in China is growing at an extraordinary rate, largely thanks to Google’s Android OS. Chinese consumers purchased 8 to 10 million smartphones last quarter, up from an estimated 2 to 3 million in the same period last year. And according to Morgan Keegan analyst Tavis McCourt, the bulk of them ran Android. Interesting, when you consider that prior to 2010, the Chinese smartphone market was ruled largely by Nokia’s Symbian OS and Windows Mobile.

If we’ve learned one thing from the Snowden revelations, it’s that what can be spied on will be spied on. Since the advent of what used to be known as the World Wide Web, it has been a relatively simple matter for network attackers—whether it’s the NSA, Chinese intelligence, your employer, your university, abusive partners, or teenage hackers on the same public WiFi as you—to spy on almost everything you do online. HTTPS, the technology that encrypts traffic between browsers and websites, fixes this problem—anyone listening in on that stream of data between you and, say, your Gmail window or bank’s web site would get nothing but useless random characters—but is woefully under-used. The ambitious new non-profit Let’s Encrypt aims to make the process of deploying HTTPS not only fast, simple, and free, but completely automatic. If it succeeds, the project will render vast regions of the internet invisible to prying eyes.

The benefits of using HTTPS are obvious when you think about protecting secret information you send over the internet, like passwords and credit card numbers. It also helps protect information like what you search for in Google, what articles you read, what prescription medicine you take, and messages you send to colleagues, friends, and family from being monitored by hackers or authorities. But there are less obvious benefits as well. Websites that don’t use HTTPS are vulnerable to “session hijacking,” where attackers can take over your account even if they don’t know your password. When you download software without encryption, sophisticated attackers can secretly replace the download with malware that hacks your computer as soon as you try installing it.

Encryption also prevents attackers from tampering with or impersonating legitimate websites. For example, the Chinese government censors specific pages on Wikipedia, the FBI impersonated The Seattle Times to get a suspect to click on a malicious link, and Verizon and AT&T injected tracking tokens into mobile traffic without user consent. HTTPS goes a long way in preventing these sorts of attacks. And of course there’s the NSA, which relies on the limited adoption of HTTPS to continue to spy on the entire internet with impunity. If companies want to do one thing to meaningfully protect their customers from surveillance, it should be enabling encryption on their websites by default.

Internet censors have a new strategy in their bid to block applications and websites: pressuring the large cloud providers that host them. These providers have concerns that are much broader than the targets of censorship efforts, so they have the choice of either standing up to the censors or capitulating in order to maximize their business. Today’s internet largely reflects the dominance of a handful of companies behind the cloud services, search engines and mobile platforms that underpin the technology landscape. This new centralization radically tips the balance between those who want to censor parts of the internet and those trying to evade censorship. When the profitable answer is for a software giant to acquiesce to censors' demands, how long can internet freedom last? The recent battle between the Russian government and the Telegram messaging app illustrates one way this might play out. Russia has been trying to block Telegram since April, when a Moscow court banned it after the company refused to give Russian authorities access to user messages. Telegram, which is widely used in Russia, works on both iPhone and Android, and there are Windows and Mac desktop versions available. The app offers optional end-to-end encryption, meaning that all messages are encrypted on the sender's phone and decrypted on the receiver's phone; no part of the network can eavesdrop on the messages. Since then, Telegram has been playing cat-and-mouse with the Russian telecom regulator Roskomnadzor by varying the IP address the app uses to communicate. Because Telegram isn't a fixed website, it doesn't need a fixed IP address. Telegram bought tens of thousands of IP addresses and has been quickly rotating through them, staying a step ahead of censors. Cleverly, this tactic is invisible to users. The app never sees the change, or the entire list of IP addresses, and the censor has no clear way to block them all. A week after the court ban, Roskomnadzor countered with an unprecedented move of its own: blocking 19 million IP addresses, many on Amazon Web Services and Google Cloud. The collateral damage was widespread: The action inadvertently broke many other web services that use those platforms, and Roskomnadzor scaled back after it became clear that its action had affected services critical for Russian business. Even so, the censor is still blocking millions of IP addresses.