The World’s Thinnest TV
Icaro Aveiga
However, mirabile dictu, here it is. Not only is it available to purchase as a series-produced watch (though I can't imagine that they plan on making very many of them per year), it is also customizable. You can, if you want bragging rights for wearing the thinnest mechanical watch ever made, specify your choice of colors for the subdial for the time, the movement plate, the finish of the hands, and even the finish of the strap. According to Piaget, there are over 10,000 possible permutations, which means that in the extremely unlikely event that you meet someone else who is also wearing one, chances are you are guaranteed to not have that Met Gala moment of horror where someone else is wearing the same outfit.
Piaget has a very strong presence in high jewelry watches, and historically, that has been a big part of the brand's identity. But in the 1960s, it was also a leader in creating ultra-thin movements, including the automatic caliber 12P and the hand-wound caliber 9P. These were record-setting movements at the time and today, they are still, even by modern standards, remarkable constructions; they were some of the thinnest really practical mechanical movements constructed. There were attempts to make flatter movements, including the late and largely unlamented Lassale calibers (which were so thin that servicing them generally meant throwing them out, as you couldn't open the watch case without damaging them beyond repair). But in terms of movements you could actually use every day, Piaget had few rivals in ultra-thin watchmaking.
The University of California opened its doors in 1869 with just 10 faculty members and 40 students. Today, the UC system has more than 280,000 students and 227,000 faculty and staff, with 2.0 million alumni living and working around the world.
Methods: This was a prospective, single-arm, single-center, post-marketing study in real-world patients. A total of 251 patients with de novo coronary artery lesion (lengths < 44 mm) and/or in-stent restenosis were enrolled and implanted with at least one Evermine 50 EES. The safety endpoint was major adverse cardiac events (MACE), composite of cardiac death, myocardial infarction (MI) attributed to the target vessel and clinically-driven target lesion revascularization (CD-TLR), at 6-month follow-up.
Conclusions: In the present study, lower rate of MACE was demonstrated, which reaffirms favourable clinical safety and performance of world's thinnest (50 µm) strut Evermine 50 EES in real-world patients with coronary artery disease.
As the first woman watch journalist in America, I have authored six books on timepieces, watchmaking and wristwatch history, have founded my own watch site called ATimelyPerspective and regularly write for the world's finest newspapers and magazines. I travel the world in search of cutting-edge new innovations and behind-the-scenes news about people, products and the places they go.
The University of Leeds is recognised for its research in material science. It runs the Bragg Centre, where academics from a range of disciplines collaborate. The centre has access to some of the best facilities in the world.
FREMONT, Calif. and SHENZHEN, China, Dec. 16, 2014 /PRNewswire/ -- Royole Corporation has successfully demonstrated the world's thinnest full-color flexible display that has been integrated with a smartphone in July 2014. This flexible display can be easily bendable as well as rollable. The thickness of the whole display is only about 0.01 mm (10 μm), which is less than one fifth the diameter of the human hair. The bending radius of this flexible display can be less than 1 mm, which is even thinner than a pen refill.
The design and fabrication of flexible displays are very challenging, and many aspects of manufacturing issues and problems need to be addressed, including materials, processing, semiconductor device structures, integrated circuits and system design, etc. Therefore, the design and manufacturing of flexible displays are far beyond simply changing the substrate type or only replacing the functional material in the traditional display. Over the past two years, Royole Corporation has already accumulated hundreds of intellectual property rights including know-hows in technologies covering virtually all the aspects of display manufacturing such as materials, processing, devices, circuits, electronic system design, etc., which they have utilized in their recent breakthrough. With the world's thinnest bendable and rollable full-color AMOLED flexible display for smartphones as pioneered by Royole Corporation, the display industry revolution may be soon accelerated.
Royole is a global start-up company focusing on R&D of novel information display technologies, especially the research, design, development and manufacturing of the flexible displays and related electronic devices. Royole Corporation operates in three major high-tech regions globally: Silicon Valley in the U.S., Hong Kong, and Shenzhen, China, since starting in the middle of 2012. The company is backed by several of the world's premier VC firms and angel investors since its inception.
Moreover, some clinical trials have identified stent strut thickness as an independent predictor of stent restenosis [21, 28-30]. Previous published study demonstrated that the implantation of coronary stents constructed with thin metal struts is associated with a significant reduction of clinical (-38%) and angiographic (-42%) restenosis when compared with a stent having strut thickness twice as great [21]. The present study reported lower rate of MACE in real-world patients with CAD. In a randomized control trial by Sabate et al, EES group reported significant reduction in MI related to target vessel (-0.94 (-1.19 to 0.30), P = 0.14) and TLR (-2.82 (-4.69 to 0.96), P = 0.0032) when compared with bare metal stent group at 1-year follow-up. In addition, the ST in BMS group was almost 3 fold higher than EES group [31]. In a study by Kitabata et al, the MACE rate was lower in thin-strut Xience V EES (1.8%) when compared with Cypher sirolimus-eluting stents (4.9%) and Taxus paclitaxel-eluting stents (5.1%), at 30 days [32].
The work, led by an MIT professor and a physicist at Brookhaven National Laboratory, was possible thanks to new instrumentation available at only a few facilities in the world. The resulting data could help guide the development of better superconductors. These in turn could transform the fields of medical diagnostics, quantum computing, and energy transport, which all use superconductors.
Only a few facilities in the world have advanced RIXS instruments. One, located at Diamond Light Source (UK) and led by Zhou, is where the team conducted their experiment. Another one, which was still being built at the time of the experiment, is at Brookhaven National Laboratory. Pelliciari is now part of the team running the RIXS facility, known as the Beamline SIX, at the National Synchrotron Light Source II located at Brookhaven Lab.
According to Rollink, their Flex collection contains the thinnest suitcases in the world. On the market at the moment is the Flex Earth, which have durable black polypropylene hard shells with multiple coloured accents, while the Flex Vega, featuring stylish pastel water resistant polycarbonate hard shells and the Flex Aura, a more luxury offering that folds down to 2.3 inches, will be available at some stage in the next year.
Researchers from Tel Aviv University have engineered the world's tiniest technology, with a thickness of only two atoms. The new technology proposes a way for storing electric information in the thinnest unit known to science, in one of the most stable and inert materials in nature. The technology works by using quantum-mechanical electron tunneling, which through the atomically thin film may boost the information reading process much beyond current technologies.
These roots underlie the Fynbos biome, a dry brushland in South Africa that is the most ecologically rich biome in the world outside of the tropics, with more than 7,000 different species of plants, of which the great majority exist nowhere else. And in a longstanding biological mystery, the Fynbos exists side-by-side with towering trees in the Afrotemperate forest biome that have only a tenth their diversity.
The new findings published in PNAS suggest that alternative stable states can be maintained through biotic mechanisms, such as roots competing for rare resources, in addition to the commonly understood abiotic factors like climate and underlying geology. This insight is critical to conserving threatened ecosystems around the world, noted the researchers.
Mill Ends Park is a tiny urban park, consisting of one tree, located in the median strip of SW Naito Parkway in downtown Portland, Oregon. The park is a small circle 2 feet across, with a total area of 452 square inches (0.00007205784 acres). It is the smallest park in the world, according to the Guinness Book of Records, which first granted it this recognition in 1971.
Again in December 2021, the substantial completion of the Portland Bureau of Transportation (PBOT) Better Naito Forever project resulted in a new and improved Mill Ends Park. The world-famous Mill Ends Park moved to a new location (a full six inches west from its previous location) as the City installed permanent bike, sidewalk improvements nearby. Naito Parkway is a critical transportation corridor for people walking, rolling, biking, and driving. Better Naito Forever has provided a permanent two-way bikeway and sidewalk along the west side of Waterfront Park. Part of the improvements for Mill Ends Park also included a new cloverleaf park border (legend has it the park is home to a family of leprechauns) and a new park sign. The bureau is hopeful park visitors can find the park in its new location without a map.
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