Category Archives: Technology

The evolution of pirating

This was posted on The Pirate Bay yesterday by WinstonQ2038:

We’re always trying to foresee the future a bit here at TPB. One of the things that we really know is that we as a society will always share. Digital communication has made that a lot easier and will continue to do so. And after the internets evolutionized data to go from analog to digital, it’s time for the next step.

Today most data is born digitally. It’s not about the transition from analog to digital anymore. We don’t talk about how to rip anything without losing quality since we make perfect 1 to 1 digital copies of things. Music, movies, books, all come from the digital sphere. But we’re physical people and we need objects to touch sometimes as well!

We believe that the next step in copying will be made from digital form into physical form. It will be physical objects. Or as we decided to call them: Physibles. Data objects that are able (and feasible) to become physical. We believe that things like three dimensional printers, scanners and such are just the first step. We believe that in the nearby future you will print your spare sparts for your vehicles. You will download your sneakers within 20 years.

The benefit to society is huge. No more shipping huge amount of products around the world. No more shipping the broken products back. No more child labour. We’ll be able to print food for hungry people. We’ll be able to share not only a recipe, but the full meal. We’ll be able to actually copy that floppy, if we needed one.

We believe that the future of sharing is about physible data. We’re thinking of temporarily renaming ourselves to The Product Bay – but we had no graphical artist around to make a logo. In the future, we’ll download one.

Toward ultra-portable electronic devices

Scientists are reporting a key advance toward the long-awaited era of “single-molecule electronics,” when common electronic circuits in computers, smart phones, audio players, and other devices may shrink to the size of a grain of sand.

The breakthrough is a method for creating and attaching the tiny wires that will connect molecular components, reports a new study in the Journal of the American Chemical Society.

The wiring method can be used to connect molecular switches, memory bits, and transistors. The scientists say their technique “will enable us to develop cheaper, higher-performance, and more ecological alternatives to conventional silicon-based devices.”

Google to acquire Motorola Mobility

Google and Motorola Mobility today announced that they have entered into a definitive agreement under which Google will acquire Motorola Mobility.

The acquisition of Motorola Mobility, a dedicated Android partner, will enable Google to supercharge the Android ecosystem and will enhance competition in mobile computing. Motorola Mobility will remain a licensee of Android and Android will remain open. Google will run Motorola Mobility as a separate business.

New biocompatible electronics for wet environments

Researchers from North Carolina State University have developed a memory device that is soft and functions well in wet environments – opening the door to a new generation of biocompatible electronic devices.

Researchers have created a memory device with the physical properties of jelly and that functions well in wet environments. (photo: Michael Dickey, North Carolina State University)

Researchers have created a memory device with the physical properties of jelly and that functions well in wet environments. (photo: Michael Dickey, North Carolina State University)

Conventional electronics are typically made of rigid, brittle materials and don’t function well in a wet environment. This memory device is soft and pliable, and functions extremely well in wet environments.

Prototypes of the device have not yet been optimized to hold significant amounts of memory, but work well in environments that would be hostile to traditional electronics. The devices are made using a liquid alloy of gallium and indium metals set into water-based gels, similar to gels used in biological research.

The device’s ability to function in wet environments, and the biocompatibility of the gels, mean that this technology holds promise for interfacing electronics with biological systems – such as cells, enzymes or tissue.

The device functions much like so-called “memristors,” which are vaunted as a possible next-generation memory technology. The individual components of the “mushy” memory device have two states: one that conducts electricity and one that does not. These two states can be used to represent the 1s and 0s used in binary language. Most conventional electronics use electrons to create these 1s and 0s in computer chips. The mushy memory device uses charged molecules called ions to do the same thing.

In each of the memory device’s circuits, the metal alloy is the circuit’s electrode and sits on either side of a conductive piece of gel. When the alloy electrode is exposed to a positive charge it creates an oxidized skin that makes it resistive to electricity. We’ll call that the 0. When the electrode is exposed to a negative charge, the oxidized skin disappears, and it becomes conducive to electricity. We’ll call that the 1.

Normally, whenever a negative charge is applied to one side of the electrode, the positive charge would move to the other side and create another oxidized skin – meaning the electrode would always be resistive. To solve that problem, the researchers “doped” one side of the gel slab with a polymer that prevents the formation of a stable oxidized skin. That way one electrode is always conducive – giving the device the 1s and 0s it needs for electronic memory.

Source: Towards All-Soft Matter Circuits: Prototypes of Quasi-Liquid Devices with Memristor Characteristics. 2011. Published by Advanced Materials. The paper was co-authored by NC State Ph.D. students Hyung-Jun Koo and Ju-Hee So, and NC State INVISTA Professor of Chemical and Biomolecular Engineering Orlin Velev. The research was supported by the National Science Foundation and the U.S. Department of Energy.

Mobile guide for buses and trains

Drivers were freed from their dependence on maps a long time ago – nowadays they rely on their navigation device to get them to destinations in unfamiliar areas. But this luxury has so far remained elusive for users of local public transport systems. A personal guide – similar to a car’s navigation system – designed to show them the way to their destination and help avoid hold-ups and out-of-service lines would be a tremendous help. Commuters and locals could switch to alternative routes if their bus or train was late and tourists would be able to find the quickest route to their hotel or to the main city sights. Now it seems there is a glimmer of hope on the horizon for public transport users: Researchers from the Fraunhofer Institute for Transportation and Infrastructure Systems IVI in Dresden are working with eight partners from industry and the research community on the Smart-Way project, which aims to develop a personal guide which would offer a whole lot more than just timetable information.

Smart-Way

Smart-Way

This mobile guide is being developed in the form of a navigation application for cell phones and smartphones. The goal is to make the app available from 2012 to help people find their way through the labyrinths of trains, buses and trams that criss-cross Europe’s cities. The application displays multiple alternative routes on a map which shows all the stops, connections, modes of transport, directions, arrival and departure times. Users also have the option of breaking off their journey, switching to different forms of transport or entering a new destination at any point they wish: By constantly tracking the user’s current location, Smart-Way is able to respond in real-time by simply re-calculating the route. The same applies in the event of traffic jams, delays or early arrivals – whenever new developments affect your chosen route, the app immediately suggests alternatives. A useful touch is the vibration alert that tells you when you have reached your destination or missed a stop.

A prototype of Smart-Way has already been completed and the researchers hope to have a final version of the application ready to roll out across Europe by 2012. The first field tests are scheduled to be run in September 2011 in Dresden and Turin in cooperation with the local public transport operators.

(photo © Fraunhofer IVI)

New app automatically tags photos

So much for tagging photographs with names, locations and activities yourself – a new cell phone application can take care of that for you.

Chuan Qin, left, Xuan Bao, right

Chuan Qin, left, Xuan Bao, right

The system works by taking advantage of the multiple sensors on a mobile phone, as well as those of other mobile phones in the vicinity.

Dubbed TagSense, the new app was developed by students from Duke University and the University of South Carolina (USC) and unveiled at the ninth Association for Computing Machinery’s International Conference on Mobile Systems, Applications and Services (MobiSys), being held in Washington, D.C.

Bao and Chuan Qin, a visiting graduate student from USC, developed the app working with Romit Roy Choudhury, assistant professor of electrical and computer engineering at Duke’s Pratt School of Engineering. Qin and Bao are currently involved in summer internships at Microsoft Research.

By using information about the environment of a photograph, the students believe they can achieve a more accurate tagging of a particular photograph than could be achieved by facial recognition alone. Such information about a photograph’s entirety provides additional details that can then be searched at a later time.

For example, the phone’s built-in accelerometer can tell if a person is standing still for a posed photograph, bowling or even dancing. Light sensors in the phone’s camera can tell if the shot is being taken indoors or outdoors on a sunny or cloudy day. The sensors can also approximate environmental conditions – such as snow or rain — by looking up the weather conditions at that time and location. The microphone can detect whether or not a person in the photograph is laughing, or quiet. All of these attributes are then assigned to each photograph, the students said.

Bao pointed out that with multiple tags describing more than just a particular person’s name, it would be easier to not only organize an album of photographs for future reference, but find particular photographs years later. With the exploding number of digital pictures in the cloud and in our personal computers, the ability to easily search and retrieve desired pictures will be valuable in the future, he said.

The students envision that TagSense would most likely be adopted by groups of people, such as friends, who would “opt in,” allowing their mobile phone capabilities to be harnessed when members of the group were together. Importantly, Roy Choudhury added, TagSense would not request sensed data from nearby phones that do not belong to this group, thereby protecting users’ privacy.

The experiments were conducted using eight Google Nexus One mobile phones on more than 200 photos taken at various locations across the Duke campus, including classroom buildings, gyms and the art museum.

The current application is a prototype, and the researchers believe that a commercial product could be available in a few years.

Quantum teleportation achieved

Researchers from Australia and Japan have successfully transferred a complex set of quantum data in light form.

The name of the machine that conducted the experiments: “The Teleporter”.

Quantum teleporter breakthrough