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01.10.2019

Press release

Powertrain systems

Bosch: Renewable synthetic fuels for less CO₂

Stuttgart, Germany – The Paris Agreement calls for global warming to be limited to 2℃ above pre-industrial levels, preferably even 1.5°C. The fossil CO₂ emitted by road vehicles will have to be reduced to nearly zero over the next three decades for that to happen. The big question is how. Electromobility is just now picking up momentum. Electric cars are only as emissions-free as the production of electricity that charges their batteries. Besides, around half the vehicles that will be on the road in 2030 have already been sold, most with gasoline or diesel engines. Legacy vehicles will also have to play their part in cutting CO₂ emissions. One path to achieving this is with renewable synthetic fuels.Seven reasons why renewable synthetic fuels will be part of tomorrow’s mobility mix: 1) Time Renewable synthetic fuels have long since left the basic research phase. Technically speaking, it is already possible to manufacture synthetic fuels. First, they apply electricity generated from renewable sources to obtain hydrogen from water. Then they add carbon. Finally, they combine CO₂ and H₂ to make synthetic gasoline, diesel, gas, or kerosene. The production process is viable, but capacity is lacking. It has to be expanded rapidly to meet demand. Incentives could come from fuel quotas, offsetting CO₂ savings against fleet consumption, and long-term planning certainty. 2) Climate neutrality As their name suggests, renewable synthetic fuels are made exclusively with energy obtained from renewable sources such as the sun or wind. In the best-case scenario, manufacturers capture the CO₂ needed to produce this fuel from the surrounding air, turning a greenhouse gas into a resource. This creates a virtuous cycle where the CO₂ emitted by burning renewable synthetic fuels is reused to produce new fuels. Vehicles on the road, when powered by synthetic fuel, are ultimately climate-neutral. 3) Infrastructure and powertrain technology The Fischer-Tropsch process produces renewable synthetic fuels that can be used with today’s infrastructure and engines. Experts call them “drop-in” synthetic fuels because they can be deployed without first modifying infrastructure and vehicles, and they have an immediate impact and deliver faster results. They may also be added to conventional fuel to help reduce CO₂ emissions from vehicles already on the road today. This way, these fuels could contribute to the cause even before they are ramped up for larger-scale production. The chemical structures and basic properties of gasoline remain intact, so even vintage cars can run on synthetic gas. 4) Costs Producing synthetic fuels is still a costly process. Renewable synthetic fuels will become considerably more affordable when production capacities are expanded and the cost of electricity generated from renewable sources comes down. Present studies suggest that a pure fuel cost of between 1.20 and 1.40 euros a liter can be achieved (excluding any excise duties) by 2030, and as little one euro by 2050. These fuels’ cost disadvantage compared with fossil fuels could be significantly reduced if value was ascribed to the environmental advantage of renewable synthetic fuels. The fact that they are compatible with today’s infrastructure and automotive technology gives them an advantage over other alternative powertrains. 5) Potential applications Even at the point in the future when all cars and trucks are powered by batteries or fuel cells, airplanes, ships, and parts of the heavy-goods transport sector will continue to rely on conventional fuels. Combustion engines powered by carbon-neutral synthetic fuels are therefore a crucial path to explore. 6) Resources Fuel in the tank or food on a plate – this question does not come up with synthetic electricity-based fuels. Innovative biofuels, which are for example produced from waste materials, are useful – however, the supply is limited. When renewable energy is used, synthetic fuels can be produced in unlimited quantities. Sufficient renewable energy can be generated worldwide to produce fuel that can then be stored and transported relatively easily. 7) Storage and transport Synthetic fuels are produced with renewable energy. This process yields a gas or liquid. And that makes renewable synthetic fuels a good medium for storing large amounts of renewable energy and even transporting it across the globe cost-effectively. They can serve as a buffer for fluctuating solar or wind energy or to circumvent regional restrictions on the expansion of renewable energy production. This also affects efficiency ratings. A compact electric car charged in Germany with renewable electricity from Germany converts around 60 to 70 percent of that grid power into road performance. If the electricity comes from further afield and the energy has first to be stored in a chemical medium before being converted back into electricity, efficiency drops to 20–25 percent. This is the same efficiency as a vehicle run on renewable synthetic fuels.

05.03.2018

Press release

Internet of Things

Bosch smart city solution Climo helps to manage air quality

Thanks to smart city technology, cities can now take action on the topic of air pollution. A first step towards improving air quality is the provision and management of data. At CES 2018, Bosch is presenting its micro-climate monitoring system Climo – a new solution, which helps cities around the world manage air-quality parameters in real time and at a much lower cost than existing technologies. The tiny box enables rapid and accurate measurement of data. It has been honored with a CES 2018 Innovation Award in the Smart Cities category. During CES 2018, Climo is monitoring air quality in the city of Las Vegas.Sensors throughout the city provide a variety of valuable data. Climo gives cities quicker and easier access to this data, allowing them to take action on air quality,” said Mike Mansuetti, president of Bosch in North America at CES 2018. “The Bosch portfolio of sensors, software and services – combined with a wealth of cross-domain expertise – position us to be a partner for cities to solve challenges and positively impact quality of life of its inhabitants.” The Climo system, developed by Bosch in collaboration with Intel, enables the rapid and accurate measurement of air-quality parameters. It combines sensors and software to deliver a range of air-quality data, covering key air pollutants including: particulate matter, carbon monoxide, nitric oxide, nitrogen dioxide, sulphur dioxide and ozone. It also provides data from environmental parameters such as temperature, relative humidity, light, sound, pressure – and even pollen. Benefits for citizens in real time Ambient air quality is a key objective for urban environmental planning. The data provided by the Climo system can be utilized by cities in a variety of proactive approaches such as traffic-flow management. It can also serve to proactively message the local population with tips and information. For example, citizens who are asthmatic or suffer from allergies can instantly know whether it is better to stay indoors or avoid a certain part of the city. It is also a source of data generation for cities to make other decisions, such as future policy and planning. In rural or park areas, the system can also provide an early warning for fires. Wireless sensors that can connect over Wi-Fi and cellular networks The ability to enable micro-climate data collection comes via the connection of compact wireless sensors. Secure remote calibration and monitoring is enabled through both wireless (Wi-Fi and 3G) as well as a wired connection. The Climo system is powered with Intel IoT technologies and features cloud-based analytics, data management and visualization software. Units are pre-configured by location and can be further configured using over- the-air updates. The easy update capabilities are part of the Climo design to scale with future technologies, such as 5G, as they become available. Hundred times smaller, ten times more cost-effective While air-quality monitoring systems can often require large infrastructure investments and are complex to operate, the Climo system was designed for simple deployment and management. It measures 1/100th the size and 1/10th the cost of a traditional air quality monitoring system. Climo was designed to withstand a variety of weather conditions. Climo units feature options for power via either 110/220 V or 12V DC. This makes it an interesting solution for cities and countries around the globe – in different weather zones and with different economic environment. Originally, it was developed by Bosch engineers in India. Real time data of air quality in Las Vegas during CES 2018 At CES Unveiled in Las Vegas, Bosch will present a live demonstration utilizing Climo that shows air-quality measurements from cities around the world – including Las Vegas. It will also show an updated management interface for Climo that provides an even more comprehensive view for city officials.