Rewind Your Biology and Live Like a 20-Year-Old! Edit Your Genes to Live Disease-Free! Find a Parking Space with Your Internet-Connected Brain! Advances in longevity, genetics, nanotech, and robotics will make all this possible! This is not science fiction. This is your future. Right now, pioneering scientists and technologists are transforming what it means to be human by overcoming biological limits that have existed since our ancestors swung out of the trees...and into the suburbs. With incredible inspiration and perseverance, these visionaries are solving deep problems of human health and longevity-and their progress is accelerating. Super You takes you inside their labs, companies, and minds...to show how you can reap the benefits of a stronger, longer, better, life. You'll learn how to start hacking your life today, to become more super, every day. Discover what's possible when yesterday's human limits are gone! Learn how evolution became obsolete-and why it's time to start hacking yourself Save your life with whirring "jet engine" hearts, printed organs, and other medical miracles Rewire and turbo-boost your ape brain Become a mega-mind by connecting your brain directly to the Internet to use Google's synthetic neocortex Become superhuman with cyborg technology Design and mold your looks Genetically engineer your baby to be a tennis star (and other true stories) Prepare for the political and religious backlash against the future Discover how scientists will make death obsolete by treating it like a curable disease-and how to live until they do

This book breaks down the fundamental topics of SDL Trados Studio into clear, taskoriented steps that will help you apply them to your translation work speedily and efficiently. This book is designed for translators who are new and have some knowledge of SDL Trados Studio. This book will get you acquainted with its features quickly and enhance your knowledge to get the best out of this tool. Previous knowledge of SDL Trados would be useful but not required but working knowledge of translating tools is assumed

Energy efficiency measures are generally less expensive than a renewable energy (RE) system to provide the same amount of energy saved. The Energy Information Administration reports that, on average, a dollar spent on efficiency saves $2 off the cost of a renewable energy system to provide the same amount of energy [IEA, 2011]. But as the saying goes "you can't save yourself rich" and having installed sophisticated controls and efficient systems, we need some source of energy to power them. On-site renewable energy systems offer several advantages, especially when operated in concert with a larger utility system. The main reasons to consider RE is cost-effectiveness, but other reasons are as diverse as: reduction of atmospheric emissions; compliance with regulations requiring RE; enhanced reliability through redundant energy supply; abate risks related to fuel availability and cost, or risk of fuel-spills during delivery; score points in a sustainability rating; or as a mitigation measure in a larger environmental-permitting process. Renewable energy technologies used on buildings include daylighting; solar photovoltaics; solar water heating; solar ventilation air preheating; passive solar heating and cooling load avoidance; wind power; biomass heat (or cogeneration as discussed in Chapter 8); anaerobic digestion of waste; and geothermal heat. Ground source heat pumps are also often considered, in-part, RE systems. Daylighting and the envelope measures (passive heating and cooling) are often considered efficiency measures, but daylighting is a direct and obvious use of solar energy in buildings, and photovoltaics (PV), Solar Water Heating and Solar Ventilation Air preheating are technologies to consider on any building project. We even consider an example of hydroelectric power on the water supply to a building. We cover the operating principle of each type of system, list components and provide schematic diagram of how components are assembled into systems; provide information for cost estimate and life cycle cost calculation, describe how system size may be optimized to minimize life cycle cost, and we stress the importance of operations and maintenance (O&M) over a long performance period. Significant emphasis is placed on integration of RE into the conventional utility system, at both the site level and from the perspective of the larger utility system, so that savings due to the RE may be realized without compromising the reliability of the system. Case studies are presented to exemplify application of each technology.