The most secure RSA encryption can now be cracked using a smartphone or PC, according to a new highly-contested scientific paper.
Imagine this scenario: It’s early Saturday morning, you just woke up, and are trying to check the news on your phone while enjoying a cup of coffee. You notice your phone isn’t connected to the internet for some reason. You check the Starlink app for a system status, and it’s offline. Attempts to create a support ticket are unsuccessful, your Starlink account credentials aren’t being accepted. The bank calls a few moments later. They’ve frozen your credit card due to fraud. You listen, stunned, as they explain that someone has ordered over $6,000 worth of Starlink equipment in the last 24 hours.
No internet service, thousands of dollars stolen, and no help from Starlink. This is an increasingly common situation faced by Starlink customers. Hackers are gaining access to unsuspecting Starlink accounts, and using the payment information on file to order thousands in equipment. Later, they will resell the equipment on 3rd party marketplaces like Amazon, eBay, and Facebook Marketplace. In this article, I’ll explain what’s going on, how to protect yourself, and what Starlink needs to do to prevent more accounts from being hacked.
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New research from a consortium of quantum physicists, led by Trinity College Dublin’s Dr. Mark Mitchison, shows that imperfect timekeeping places a fundamental limit to quantum computers and their applications. The team claims that even tiny timing errors add up to place a significant impact on any large-scale algorithm, posing another problem that must eventually be solved if quantum computers are to fulfill the lofty aspirations that society has for them.
The paper is published in the journal Physical Review Letters.
It is difficult to imagine modern life without clocks to help organize our daily schedules; with a digital clock in every person’s smartphone or watch, we take precise timekeeping for granted—although that doesn’t stop people from being late.
How much would it cost to hack your phone? The best guess for an iPhone is between $0 and $65,000 — and that price mainly depends on you. If you skipped a really important security update, the cost is closer to $0.
Say you were up to date. That $65,000 figure is an upper cost of exploiting the median individual — switch to an Android, a Mac, or a PC and it could get a lot lower. Apple has invested enormous resources in hardening the iPhone. The asking price for an individual exploit, rather than as a service, can go as high as $8 million. Compare that to the cost of an exploit of a PDF reader like Adobe Acrobat — notoriously riddled with security vulnerabilities — which according to this TrendMicro research report (PDF) is $250 and up.
Switch from targeting a specific person to targeting any of the thousands of people at a large company and there are myriad ways in. An attacker only needs to find the cheapest one.
The $26.3 billion amount did not specify the payments to any single partner, but Apple was likely the biggest beneficiary.
Most likely whenever you search for something on your iPhone or Android phone, it’s definitely a Google search to many of us has become the staple of search engines. But Google also invests heavily in remaining to be so.
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It could improve limits on information transfer speed but is made of a super expensive ingredient that might make it financially infeasible.
Researchers at Columbia University in the US have developed the fastest and most efficient superconductor that works at room temperature, a press release said. The superconductor is made of superatomic material only known by its chemical formula, Re6Se8Cl2.
In a short span of time, silicon has become an integral part of most modern-day equipment ranging from cell phones to cars, computers to smart homes. However, scientists have found that silicon will soon reach its limits. This is because of the atomic structure of the semiconductor.
In America, roughly 40 million Americans have diabetes and about 95% of them have type 2 diabetes. Type 2 diabetes occurs when the body cannot correctly process sugar and fuel cells. More specifically, the body does not produce enough insulin to break down sugar into glucose for the cells to use. In this case, treatment includes insulin shots or a pump in addition to a strict diet excluding sweets or high fat meals. Treatment limitations disrupt patient quality of life. Some researchers have been working on better detection for diabetic retinopathy with artificial intelligence (AI), but research is limited on how to better detect diabetes itself. Thus, many researchers are working to detect diabetes early on and discover better treatments.
Klick labs, located in multiple cities across the world, is trying to detect type 2 diabetes by having a patient speak into a microphone for 10 seconds. Klick labs believes this technology can better detect diabetes and help patients get treatment earlier. The study was published in Mayo Clinic Proceedings: Digital Health, which details how patients spoke for 10 seconds and combined with health data, including age, sex, height, and weight, created an AI model that discerns whether a person has type 2 diabetes or not. After further tests, scientists determined it has 89% and 86% accuracy for women and men, respectively.
In the study, Klick Labs collected voice recordings of 267 people, either non-diabetic or diabetic. The participants were asked to record a phrase into their smartphones six times a day for a total of 2-weeks. Over 18,000 recordings were taken and analyzed to distinguish 14 acoustic features that helped distinguish non-diabetic to type 2 diabetic individuals. The research highlights specific vocal variations in pitch and intensity that could lead to how the medical community screens for early-onset diabetes. A major barrier to early detection includes time, travel, and cost, which many people do not have. Voice diagnosis can help eliminate those barriers and improve detection and treatment in diabetic patients.
Acoustic resonators, found in devices like smartphones and Wi-Fi systems, degrade over time with no easy way to monitor this degradation. Researchers from Harvard SEAS and Purdue University have now developed a method using atomic vacancies in silicon carbide to measure the stability of these resonators and even manipulate quantum states, potentially benefiting accelerometers, gyroscopes, clocks, and quantum networking.
Acoustic resonators are everywhere. In fact, there is a good chance you’re holding one in your hand right now. Most smartphones today use bulk acoustic resonators as radio frequency filters to filter out noise that could degrade a signal. These filters are also used in most Wi-Fi and GPS
GPS, or Global Positioning System, is a satellite-based navigation system that provides location and time information anywhere on or near the Earth’s surface. It consists of a network of satellites, ground control stations, and GPS receivers, which are found in a variety of devices such as smartphones, cars, and aircraft. GPS is used for a wide range of applications including navigation, mapping, tracking, and timing, and has an accuracy of about 3 meters (10 feet) in most conditions.
Acoustic resonators are everywhere. In fact, there is a good chance you’re holding one in your hand right now. Most smart phones today use bulk acoustic resonators as radio frequency filters to filter out noise that could degrade a signal. These filters are also used in most Wi-Fi and GPS systems.
Acoustic resonators are more stable than their electrical counterparts, but they can degrade over time. There is currently no easy way to actively monitor and analyze the degradation of the material quality of these widely used devices.
Now, researchers at the Harvard John A. Paulson School of Engineering and Applied Sciences (SEAS), in collaboration with researchers at the OxideMEMS Lab at Purdue University, have developed a system that uses atomic vacancies in silicon carbide to measure the stability and quality of acoustic resonators. What’s more, these vacancies could also be used for acoustically-controlled quantum information processing, providing a new way to manipulate quantum states embedded in this commonly-used material.
The trial has revealed that Google was concerned about losing its monopoly to Spotlight, an in-house search engine made by Apple.
Google and Apple compete on several fronts – operating systems, email, app stores, cloud computing, and photo apps. While Google leads in the market share of its phone operating system, Apple boasts of a line of very cool hardware tech. But they remain partners in one key area, which is also currently in the eye of the storm.
Google pays Apple for its search engine to be the default selection on iPhones. Its parent company, Alphabet, pays the iPhone maker upwards of $20 billion annually as part of the deal. In 2016, Apple reportedly was presented with a lucrative billion-dollar offer by Microsoft to replace Google with Bing in its phones. But Apple didn’t budge.
