The Lunaluxx lamp is an atmospheric lamp that is sure to replace any centrepiece or help start any dinner conversation. “By combining both magnetic suspension and remote-phosphor lightning technologies, a light emitting disc is freely suspended in mid air.”
The levitating disc looks like a little spaceship, and once it’s in place, the light comes on. The Lunaluxx is easy to turn on and off, although I don’t know what one does with the disc when the light is turned off, as that requires making sure a human or animal doesn’t make off with it or misplace it.
It does look great and original, designed by Elivatix in Eindhoven, a hotbed of Dutch design and lamps.
Dutch industrial designer Leonie Tenthof van Noorden, who uses 3D scanning to produce unique custom-made dresses, calls the technique she uses ‘digital tailoring’. She also claims that going to a shop that will scan you and make clothes for you is probably not that far off, either.
Her Master’s graduation project at the Eindhoven University of Technology ‘This Fits Me’ is called the way it is because the clothing is fitted specifically to someone’s body using 3D scanning techniques and generative design, explained in the video which was filmed in Eindhoven during Dutch Design Week 2014.
The Vigour cardigan is a collaboration between Pauline van Dongen, the TextielMuseum in Tillburg, and fellow PhD candidate at Eindhoven University of Technology, Martijn ten Bhömer. Van Dongen is also known for her long-lasting bioluminescent lamp.
Vigour has integrated stretch sensors that monitor upper body movement. The garment enables geriatric patients, physiotherapists and family to gain more insight into the exercises and progress of a patient’s rehabilitation. The sensors collect data that is then sent to an application installed on a tablet, so it can be analysed to help provide feedback from professionals.
Researchers at Eindhoven University of Technology together and the University of Central Florida, report in the journal Nature Photonics the successful transmission of a record high 255 Terabits/s over a new type of fiber allowing 21 times more bandwidth than currently available in communication networks. This new type of fiber could be an answer to mitigating the impending optical transmission capacity crunch caused by the increasing bandwidth demand.
The new fiber has seven different cores through which the light can travel, instead of one in current state-of-the-art fibers. This compares to going from a one-way road to a seven-lane highway. Also, they introduce two additional orthogonal dimensions for data transportation – as if three cars can drive on top of each other in the same lane. Combining those two methods, they achieve a gross transmission throughput of 255 Terabits/s over the fiber link. This is more than 20 times the current standard of 4-8 Terabits/s.
Just like the Netherlands did in Brazil during the World Cup, the robot team from the Eindhoven University of Technology have made it to the semi-finals of the RoboCup 2014, the World Cup for robots, also being held in Brazil.
Eindhoven had a difficult game against China this past Monday when all five robots on the field decided they all wanted to be goalies. After a reset of the robots, the designated goalie did its job and Eindhoven won 3-0.
Later today Eindhoven will be playing the final against I have no idea but not China or Japan, after scouring the Internet and the official but not updated RoboCup site. I will update you as soon as Twitter works its magic.
This picture was taken at RoboCup 2013, which was held in Eindhoven where they lost against China, proving that the world is indeed round.
Researchers at Eindhoven University of Technology and the FOM Foundation have recently presented a new technology that potentially allows data to be stored 1,000 times faster with ‘spin current’ using ultra-short laser pulses.
Data is conventionally stored using magnetization, making bits 1 or 0, but the limits of this technology have been reached, and researcher Sjors Schellekens of the Technical University of Eindhoven says that it’s time for new data storage technology.
The ‘spin current’ is able to cause a change in magnetization, which is 1,000 faster than what is possible with today’s technology. The new method has also been hailed as step towards future optical computer chips, which Eindhoven University of Technology is now working on thanks to a Dutch grant of close to 20 million euro.
While earlier this week students from the Delft University of Technology won for speed, the Eindhoven crew won for practicality, “with the ultimate goal of an entrant being able to meet the requirements for road registration in the country of origin.”
Why would a rainy country like the Netherlands even want to become a heavy hitter in solar-powered cars, you may wonder. “The Netherlands has enough sunlight to drive about 70 kilometres a day, given that the average drive only drives about 38 km/h. If you charge up the battery, you can drive 430 kilometres, which is a lot,” says Van Loon, one of the Eindhoven students.
A team of students from the Eindhoven University of Technology has created a solar powered family car that is street legal, Telegraaf reported last Tuesday.
The car called Stella was created by Solar Team Eindhoven in a bid to win the Cruiser Class of the World Solar Challenge in Australia this October. Stella is 4.5 metres long, 1.65 metres wide and seats four. It can go 430 kilometres on a single charge. The solar panel has only got an efficiency rating of 22%. Spokesperson Wouter van Loon told Bright last month that this was a conscious decision: “We could have opted for a space-grade panel, but this way we keep the car affordable.”
The car’s top speed is only 120 km/h because the special low-friction tires cannot handle more. In the past teams of the universities of Twente and Delft also participated in the World Solar Challenge. Delft’s car Nuna, shown here, won the race 4 times out of the 7 it entered, and in 2011 it finished second after Japan’s Tokai Challenger.
Expiration dates on food are just a guideline. Sometimes, things like milk are bad from the get-go, while tinned products seem to last for years. However, we don’t really know, as most of us make sure nothing green is growing on our food or sniff it to make sure it smells alright.
But wouldn’t it be great to have the guesswork taken out of the equation? The Eindhoven University of Technology is working on doing just that using a plastic analogue-digital converter, or plastic chip. The cost of having these chips on food are less than a euro cent and could also be used for other expiration date sensitive goods such as medicine.
One of the researchers on this project says food can be monitored already using standard silicon chips, but that is too expensive, about 10 euro cent, which is too much for a one euro item. That is why they are using plastic, as the chips can be applied directly to packaging. And apparently, the chips use some very complex mathematics to make sure they work properly.
Filed under: Technology by Branko Collin @ 1:04 pm
Two students of the Eindhoven University of Technology have discovered that the least safe code for your bank card (PIN) is 2580.
They did this by estimating which hand movements are easiest to observe, then calculating the amount of fits for each series of movements. The PIN 2580 on a grid that consists of the rows 123, 456, 789 and x0x requires a continuous downward motion of the hand, and is the only code possible for that series of movements. A bad actor should be able to guess that PIN 100% of the time.
Eindhoven Dichtbij reports that 292 codes can be guessed in three goes after observing hand movements. This also produces a 100% success rate, assuming the bad actors get three attempts before access is blocked. Codes that are relatively safe require lots of back and forth movements. The code 1959 belongs to the same set of hand movements as 105 other PINs.
I wonder if making fake movements would help against PIN thieves?
The students, Anne Eggels and Aukje Boef, also considered other ways of hacking PINs:
Dabbing the keys in salts, and measuring which salts were gone after use of the keypad—especially useful for PINs in which the same key is used more than once.*
Observing wear and tear of keys—useful in locations where the same PIN is shared my most users, such as nursing home wards.
Aukje Boef has a telling name by the way, as her last name means ‘crook’ in Dutch.