Tag Archives: energy
UPM And Ashland Inc. To Collaborate On Application Development For UPM Biofibrils Technology
PRESS RELEASE June 18, 2013, 3:29 a.m. ET UPM and Ashland Inc. to collaborate on application development for UPM Biofibrils technology UPM-Kymmene CorporationPress releaseUPM and Ashland Inc. to collaborate on application development for UPM Biofibrils technology(UPM, Helsinki, June 17, 2013 at 11.00 EET) — UPM and Ashland Inc. (NYSE: ASH) have entered into a cooperative agreement to develop and commercialize products containing UPM’s Biofibrils technology. UPM Biofibrils are micro and nanofibrillated cellulose products that can be used for shaping materials and giving them new characteristics. In the biofibrils collaboration UPM and Ashland will jointly study the use of biofibrils in a wide range of industrial application opportunities. For example, biofibrils might be used to improve the quality and performance of a broad array of polymer products ranging from coatings and construction materials to home and car care products as well as energy drilling applications. The collaboration marks a milestone for two companies with extensive expertise in cellulose technology. UPM has pursued research and development of biofibrils technology for several years and has a large portfolio of patent applications and production experience. Ashland has its own research and patents in microfibrillar cellulose technology. “Our collaborative relationship with UPM provides an excellent opportunity to combine the UPM Biofibrils technology with Ashland’s application expertise in order to bring new products and functionalities to our customers. When we combine our strengths and know-how with experts offering new technologies that complement our product lines, we can deliver value-added performance to our customers”, says May Shana’a, Vice President, Technology and Growth Strategy, Ashland Specialty Ingredients. UPM Biofibrils technology is a result of a long-term research and development commitment. Cornerstones of UPM’s Biofore strategy are the versatile use of renewable wood biomass combined with innovation and sustainability. “UPM Biofibrils is a novel biomaterial that allows development of new fibre-based products with exciting properties for the UPM product portfolio. The collaboration with Ashland’s global development team enables further development and commercialization of UPM Biofibrils in several industrial applications”, says Esa Laurinsilta, Director, UPM Biofibrils. For further information, please contact: Esa Laurinsilta, Director, UPM Biofibrils, UPM tel. +358 40 821 0350 Link to the image gallery. UPM Media Desk tel. +358 40 588 3284 (9-16 EET) media@upm.com www.upm.com www.twitter.com/UPM_News UPM New Businesses and Development (NBD) is an important part of UPM’s renewal and Biofore strategy. The objective of NBD is to provide added value to renewable wood raw material by developing ideas into new products and businesses. The key projects are biocomposites, biofibrils and biochemicals. UPM leads the integration of bio and forest industries into a new, sustainable and innovation-driven future. Our products are made of renewable raw materials and are recyclable. UPM consists of three Business Groups: Energy and pulp, Paper, and Engineered materials. The Group employs around 22,000 people. UPM is present in 67 countries and has production units in 17 countries. UPM’s annual sales exceed EUR 10 billion. UPM’s shares are listed on the Helsinki stock exchange. UPM — The Biofore Company — www.upm.com About Ashland In more than 100 countries, the people of Ashland Inc. (NYSE: ASH) provide the specialty chemicals, technologies and insights to help customers create new and improved products for today and sustainable solutions for tomorrow. Our chemistry is at work every day in a wide variety of markets and applications, including architectural coatings, automotive, construction, energy, food and beverage, personal care, pharmaceutical, tissue and towel, and water treatment. Visit ashland.com to see the innovations we offer through our four commercial units — Ashland Specialty Ingredients, Ashland Water Technologies, Ashland Performance Materials and Ashland Consumer Markets. www.ashland.com. Continue reading
U.S. Forest Management Policy Must Evolve To Meet Bioenergy Targets
Jun 19, 2013 U.S. forest management policy must evolve to meet bioenergy targets In order to keep pace with the burgeoning demand for renewable energy, forest management policy in the U.S. must change to address environmental sustainability issues, according to an article by a University of Illinois expert in bioenergy law. Unless the forestry sector can tailor sustainable forest management policies specifically to forest-to-energy feedstocks, its role in helping the country broaden its energy portfolio – and by extension, meeting ambitious bioenergy targets – may be limited in large part because of uncertainty about whether existing policies can effectively constrain overharvesting, said Jody Endres, a professor of bioenergy, environmental and natural resources law at Illinois. “Because we have a federal system of government, we don’t have a one-size-fits-all policy on land use and biofuels,” said Endres, who also is an affiliate of the Energy Biosciences Institute, a collaboration between the U. of I., the University of California at Berkeley, the Lawrence Berkeley National Laboratory and the energy company BP. “In a lot of environmental and natural resources law in the U.S., the primary role lies with the states to manage private land. But we also have national-level problems, like climate change, biodiversity and water-quality issues, which span jurisdictions. In other words, ecosystem services are not confined to a single state’s jurisdiction. So we have this crazy-quilt system in the U.S. that needs to be untangled.” The paper, which was published in the Vermont Law Review, was written to pinpoint what U.S. policy looks like, “which is very complicated because of the intermingling of state and federal policy,” Endres said. “We don’t have a coordinated public, state or federal policy in the U.S. about what sustainability means in the bioenergy context,” she said. “We don’t have one overarching policy that says, ‘This is how you assess land for biodiversity, or for water quality.’ So this patchwork of policies really makes it difficult for outsiders like European regulators looking in. A lot of misperceptions grow out of that.” According to Endres, the U.S. needs to craft some sort of integrated standard that covers not only the purpose-grown, short-rotation biomass crops such as the perennial grass miscanthus, but also forested plantations and seminatural environments, and be able to assess whether there are actually some ecological and climate benefits for getting those lands into the bioenergy system. “Those are the problems that bioenergy in the U.S. is facing, and it’s all really very nascent, but we know it’s problematic,” she said. “How do we translate that into a policy and into a sustainability certification? How do we make it economic while also providing an on-ramp for consideration of the ecological properties of forests in terms of larger scale landscapes and connectivity? That’s yet to be decided, but the paper lays it out what the points of contention look like.” It’s an interesting conversation to have in the U.S., because unlike Europe, “we still have some natural or seminatural forest left,” Endres said. “Ultimately, the goal is for U.S. forestry interests to access the European bioenergy, which may involve an additional level of certification or verification. We certainly have mandates here in the U.S., but they’re becoming much more stringent about certification in Europe.” According to Endres, there are two main certification programs in the U.S. – the Forest Stewardship Council and the Sustainable Forestry Initiative. “Those are the two dueling standards in the U.S., but what they don’t do is address bioenergy applications specifically, and that’s mainly the carbon foot-printing of managing forests for bioenergy,” she said. “Through all of these bioenergy policies, one of the main goals is to reduce greenhouse gas emissions. But we’re not there yet in terms of how to design a policy that chooses the appropriate measurement methodology for carbon fluxes within forests, because what you really want is a net greenhouse gas reduction. Private standards have not determined yet how to account for that – the science is still nascent on the effects of sustainability standards, as well as the time horizons for accounting in comparison to business as usual.” Assessing whether a land is natural, seminatural or a plantation is also something that the U.S. doesn’t do neatly in one overarching bioenergy policy. “We need to be able to classify land so we know whether or not we can access it for bioenergy applications that would be additional to, for example, lumber or paper, although those markets have been in general decline over the past decade,” Endres said. “The renewable energy directive in Europe is not going away. Forest product industries are actually gearing up to access those markets, and ultimately consumers, especially the type who go to big-box stores and look for sustainability certification on two-by-fours and other products, will likely want to see that forests aren’t overharvested. The European Union also may want to see that in some type of formal certification.” Thus, bioenergy now carries the burden, whether justified or not, to address perceived shortfalls in sustainable forest management, Endres said. “It is simply not enough in policy design, given the historically highly charged debate about forest sustainability, to make assumptions that existing sustainable forest management policies provide the assurances necessary for stakeholders, particularly environmental and wildlife organizations, to support forest-based bioenergy initiatives,” she said. “The main environmental groups are very concerned with over-sourcing from natural and seminatural private forest lands and federal lands. And they were actually successful at the federal level at keeping federal forests off-limits from the Renewable Fuel Standard.” According to Endres, forest policy since the early 1970s has grappled with how to manage forests holistically, “so I applaud bioenergy for bringing that conversation to the forefront on how we can really manage forests in a more informed, connected way at the ecosystem level,” she said. “We could really learn a lot from Brazil’s Forest Code protections for water quality and habitat connectivity derived from forests simply because they’ve been under the microscope since the 1990s for how they’ve managed their forests, including the Amazon rainforest,” she said. “But with the emergence of bioenergy, the whole world is going to participate in that conversation, and I see that dialogue as paradigm changing, as something that will ultimately benefit both the environment and humanity.” The Energy Biosciences Institute supported the research. Source: UI Urbana-Champaign Continue reading
Research And Markets: Carbon Capture And Storage May Be Key To Meeting Global Emissions Targets
DUBLIN — Research and Markets ( http://www.researcha…/carbon_capture ) has announced the addition of the “Carbon Capture and Storage (CCS) for Coal-Fired Plants – Opportunity Assessment and Key Country Analysis to 2025” report to their offering. Although currently negligible in prominence, Carbon Capture and Storage (CCS) could be the technology that makes the world’s carbon emission reduction targets achievable, say energy experts The authors, in their latest report. As the report* explains, carbon storage techniques, such as enhanced oil recovery, have been used in the energy sector for decades, but only recently has the concept of long term carbon storage been viewed as a viable means of reducing the amount of carbon released into the atmosphere from power plants. Correspondingly, a modest 238 megawatts (MW) of CCS capacity was installed globally at the end of 2011, but according to current government plans and other initiatives, a far more substantial 10 gigawatts (GW) is expected to come online by the end of the decade. CCS refers to the technology of capturing carbon dioxide (CO2) before or after the combustion of fossil fuels (gas or coal), transporting it and pumping it into underground geological formations. This process prevents large quantities of CO2 from being released into the atmosphere by securely storing it between impermeable rock or similar material. China, the US, Australia, Japan, Norway, the Netherlands and the UK have invested heavily in CCS Research and Development (R&D) activities and are the global leaders in the industry; however, there are currently no large-scale CCS demonstration projects active for coal-fired plants. Governments around the world are showing a lack of commitment in significantly reducing fossil fuel consumption, and so CCS could prove the most realistic answer to one of the greatest predicaments of our time. However, The authors’s report states that this technology must be employed much more widely in order for CCS to make the level of impact its potential suggests. This report provides the retrofit potential and new market potential for the global CCS market in terms of revenues and capacity. It also discusses the key drivers and restraints impacting the market. Companies Mentioned Alstom Chevron ConocoPhilipps E.ON Vattenfall Statoil ENEL Siemens RWE Japan CCS Company The Co-operative Research Centre for Greenhouse Technologies For more information visit http://www.researcha…/carbon_capture About Research and Markets Research and Markets is the world’s leading source for international market research reports and market data. We provide you with the latest data on international and regional markets, key industries, the top companies, new products and the latest trends. Read more here: http://www.heraldonl…l#storylink=cpy Continue reading