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Natural and industrial or accidental disasters can take many forms and have devastating human and material consequences. Some may be prevented or their impact mitigated through forecast, others not. Rescuing victims and repairing damage are essential for a return to normal life. Standardization work by a number of IEC technical committees (TCs) and subcommittees (SCs) may help warn of impending disasters as well as aid in assessing, repairing and mitigating their consequences.
Energy efficiency (EE) is the most important and easily available source of energy; it can be collected along the entire energy chain, from generation, transmission and storage to final use in industry, homes or transportation. IEC standardization and conformity assessment (CA) work are central to electrical EE at all levels.
Printed electronics is a relatively new technology, but it has already proven a disruptive, yet creative process that allows the production of new products and components, low-cost electronic devices, which open the way to a range of new applications. It has started transforming the electronics industry and many other domains by being included in different manufacturing processes. This new technology led to the creation, in 2011, of IEC Technical Committee (TC) 119: Printed electronics.
Printed electronics as a manufacturing method has become established in a number of areas across the electrotechnical world. The connections that are made are emerging as particularly significant in the new generation of wearable electronic devices. Although some wearable applications can be realized using wholly conventional rigid electronics, many will require some element of flexibility. Standardization work by a number of IEC Technical Committees (TCs) and subcommittees (SCs) is central to this development.
The market for agricultural robots has the opportunity for significant expansion: the farming world needs to increase global production whilst it also faces challenges such as reduced availability and the rising costs of farm labour.
Natural and industrial or accidental disasters can take many forms and have devastating human and material consequences. Some may be forecast, others not, and there may be a range of significantly different outcomes. Standardization activities by a number of IEC technical committees (TCs) and subcommittees (SCs) may help warn of impending disasters as well as aid in assessing and mitigating their human and economic impact.
Rapid advances in technology are revolutionizing the roles of aerial, terrestrial and maritime robotic systems in disaster relief, search and rescue (SAR) and salvage operations. Robots and drones can be deployed quickly in areas deemed too unsafe for humans and are used to guide rescuers, collect data, deliver essential supplies or provide communication services.
Recovering energy can offer attractive solutions for providing additional power to motor vehicles at the same time as cutting their fuel consumption and emissions. They rely on a number of systems that recover thermal, kinetic, or other forms of energy (such as solar) that would either be lost or not used in vehicles.
The demands posed by a rapidly ageing global population are leading manufacturers of robots to develop technology for providing care and rehabilitation for elderly and impaired people in their own homes.
In hundreds of smart city projects around the world, governments, municipalities and private stakeholders are investing in smart grids, open data platforms and networked transport systems to meet the challenges of environmental sustainability, population growth and urbanization.
Sensors provide information about objects, or people and their environment. Networks of sensors in the shape of wearable electronics and integrated into the living environment will support Active Assisted Living (AAL) into the future. Sensors and printed electronics will be increasingly integrated into smart wearable devices to facilitate the implementation of AAL.
Imagine swiping your car seat to change the radio station or heating temperature? How about a uniform which can detect chemical contamination, a tent which generates electricity or a lamp shade which reacts to light and temperature?
Many innovations deployed on the global stage at the 2016 Olympics will find their way into the next generation of smart sports and fitness devices aimed at the consumer market, especially wearable technologies. This sector is enjoying very rapid growth, reflecting underlying trends in technology development and uptake. Improvements in activity trackers have accelerated the trend of moving beyond wearables that monitor just a few vital biometric signs, like heart rate or calories burned, to tools tracking activities specific to particular sports.
Wish you could get tickets to the Olympics, World Cup or Super Bowl and experience the live atmosphere just once? A new trend is sweeping the sports world that is already allowing fans to feel as if they were at the game without leaving the couch. From football, tennis and F1 racing, to basketball, golf, hockey and more, spectators can watch games literally from new angles.
More than ever before the two major sports event of 2016, the European Football Championship, Euro 2016, and the 2016 Olympics Games, are supported by high-tech electrical and electronic equipment and systems. These make it possible to provide the best possible coverage on and off the venues and ensure high commercial returns for investors and sponsors.
Saving commuter time, money, the environment and eliminating human error are key reasons behind a number of projects trialing driverless car-like transport for congested cities.
Invisible but essential for the success of the Sochi 2014 Winter Olympics, IEC work underpinned a host of technologies which helped in the smooth running of the Games.