Our June issue includes features focusing on ceramic medical/dental applications, building-integrated photovoltaics challenges and opportunities, analytical challenges, and the new OSHA silica rule. Check it out today!
In many ways, material science is driving enormous and exciting change for the medical community. Technical advancements, new applications, and product innovations are empowering industry growth and influencing new global market trends.
Read the latest news while relaxing at home, in a café, at the beach, in the mountains or in a self-driving car on a highly flexible, rollable, and foldable touchscreen. This may sound like a pipe dream, but it could be a reality in the next five years. In fact, these flexible, three-dimensional or foldable displays could evolve to become an essential part of our everyday lives.
Solar modules for building skin integration are still niche products due to high costs, a lack of integration possibilities and interest on the part of architects—but this could soon change. Due to more efficient solar cells and new dimensions, shapes, and transparency levels, modules are becoming less expensive and more versatile.
An experienced testing lab can identify the right technique for ceramics analysis and provide results that help boost confidence in a material's quality.
Performance is critical for today’s advanced applications of ceramics. Whether they are being used as electrical insulators or for thermal protection on a spacecraft, the failure of ceramic components can have serious, even life-threatening consequences.
OSHA Standard 29 CFR 1910.1053 is not the first time that the U.S. Occupational Safety and Health Administration (OSHA) has set limits on crystalline silica.
USC scientists have developed a material that is incredibly hard but also elastic, making it potentially useful for applications ranging from drill bits and body armor to meteor-resistant satellite casints.
Engineers have created a new material with an unusual chemical structure that makes it incredibly hard yet elastic. The material can withstand heavy impacts without deforming; even when pushed beyond its elastic limits, it doesn’t fracture, but instead retains most of its original strength.
The Hong Kong Polytechnic University (PolyU) has reportedly achieved the world’s fastest optical communications speed for data centers by reaching 240 G bit/s over 2 km, which is 24 times the existing speed available.
“Glass seems to work pretty well,” says glass expert Mark Ediger, gesturing at windows overlooking the University of Wisconsin-Madison (UW-Madison) power plant on Dayton Street. They are the only obvious bits of glass in his office, and so the discussion of 21st century glass entails repeated references toward windows that, ironically, are exactly the kind of glass that doesn’t much interest him.
If you were lucky enough to attend Ceramics Expo 2016 in April, you would have seen some of the many new technologies and products that are available for today’s ceramic manufacturers and end users of ceramic components.
More than 30 years ago when I started my career as a patent examiner in the U.S. Patent and Trademark Office (USPTO), there was a common phrase that went something like this: “Patents are not valid until they are litigated.”