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		<title>www.adlershof.de: RSS News</title>
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		<lastBuildDate>Wed, 22 May 2013 16:56:00 +0200</lastBuildDate>
		
		
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			<title>Physicists let magnetic dipoles interact on the nanoscale for the first time</title>
			<link>http://www.adlershof.de/en/newsview/article/physiker-lassen-erstmals-magnetische-dipole-auf-der-nanoskala-wechselwirken/?no_cache=1&#38;cHash=e73e047a1952605d7dbd4a450cc57b32</link>
			<description>“Of great technical interest for future hard disk drives”</description>
			<content:encoded><![CDATA[Physicists at the Ruhr-Universität Bochum (RUB)  have found out how tiny islands of magnetic material align themselves  when sorted on a regular lattice - by measurements at BESSY II. Contrary  to expectations, the north and south poles of the magnetic islands did  not arrange themselves in a zigzag pattern, but in chains. “The  understanding of the driving interactions is of great technological  interest for future hard disk drives, which are composed of small  magnetic islands”, says Prof. Dr. Hartmut Zabel of the Chair of  Experimental Physics / Solid State Physics at the RUB. Together with Dr.  Akin Ünal, Dr. Sergio Valencia and Dr. Florian Kronast from the  Helmholtz-Zentrum in Berlin, Bochum’s researchers report in the journal  “Physical Review Letters”.
Read the full text in the <link http://aktuell.ruhr-uni-bochum.de/pm2013/pm00144.html.en>press release of RUB</link>.]]></content:encoded>
			<category>Mikrosysteme und Materialien </category>
			<category>IGAFA-Wissenschaft</category>
			
			
			<pubDate>Fri, 17 May 2013 10:54:00 +0200</pubDate>
			
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			<title>Snap shots of one of life's central processes</title>
			<link>http://www.adlershof.de/en/newsview/article/die-letzten-geheimnisse-der-photosynthese/?no_cache=1&#38;cHash=fc62b32584cba6a4690c33077728ce76</link>
			<description>Human Frontier Science Program provides funding of 900,000 US Dollars in support of international...</description>
			<content:encoded><![CDATA[Photosynthetic water-oxidation is one of the  central processes of life on Earth but remains incompletely understood.  Now, a German-American team of scientists has set out to observe the  intermediate stages of this complex catalytic reaction using ultrashort  snap shots taken at light sources including BESSY II in Berlin and the  Linac Coherent Light Source at Stanford. To support their efforts, the  Human Frontier Science Program has now pledged funding of approximately  900,000 US Dollars for a total three-year period. The team includes HZB  physicist Dr. Philippe Wernet, chemist Prof. Dr. Athina Zouni of  Humboldt University of Berlin, Dr. Uwe Bergmann of the SLAC National  Accelerator Laboratory and Dr. Junko Yano of the Lawrence Berkeley  National Laboratory, who is in charge of the project. 
In  spite of the fact that all aerobic organisms consume oxygen,  thankfully, we don't ever run out of it. Because as part of  photosynthesis, green plants, algae, and cyanobacteria all assemble  carbohydrates from CO<sub>2</sub>, water, and sunlight, and in the  process once again give off oxygen. Here, splitting of oxygen from  water, the central reaction in photosystem II, a membrane bound  multi-subunit protein, only becomes possible through the presence of a  catalyst, a complex molecule with an Mn<sub>4</sub>CaO<sub>5</sub> core.  A team of HZB researchers, their Berlin and US colleagues is exploring  the reactions involving this natural catalyst. New insights would not  just be fundamentally exciting but could potentially also contribute to  the storage of solar energy in the form of solar fuels to help solve one  of the major challenges in the transitioning energy economy.
At  the same time, the team has recently come up with a new approach that  goes far beyond conventional X-ray crystallography and spectroscopy at  low temperatures. Because as long as the investigations are done at  temperatures near absolute zero, they don't even come close to  resembling real-life conditions. What is more, the X-rays also damage  the catalyst molecules. The intense and ultrashort femtosecond X-ray  pulses at the Linac Coherent Light Source, the SLAC National Accelerator  Laboratory's free electron laser in Stanford, USA, are capable of  collecting data at room temperature and, in the process, detecting  signals before the sample is destroyed. &quot;What we're doing here is taking  sort of a snap shot of the reaction,&quot; explains Philippe Wernet.
The researchers want to study protein structure and reaction dynamics of the Mn<sub>4</sub>CaO<sub>5</sub>&nbsp; cluster,  specifically while additional light is being absorbed and water is  oxidized to yield oxygen. &quot;We're planning a series of time-resolved  X-ray diffraction and spectroscopy experiments to examine the reaction  at room temperature and in the process image all the various  intermediate stages,&quot; explains Wernet. The scientists' hope is to glean  highly specific insights into the reactions as they take place at the Mn<sub>4</sub>CaO<sub>5 </sub>cluster and identify the intermediate stages that are necessary for the photosynthetic oxidation of water.
Here,  the four experts complement each other beautifully. Junko Yano of the  Lawrence Berkeley National Laboratory and chemist Athina Zouni of  Humboldt-University Berlin are renowned photosystem II protein  spectroscopy and X-ray crystallography experts, respectively. Uwe  Bergmann and his team at the Linac Coherent Light Source, USA, will be  involved with the spectroscopy instrumentation for taking the snap shots  using hard X-rays. HZB's own Philippe Wernet will be examining the  time-resolved samples using soft X-rays at BESSY II. Lastly, the joint  measurements at the Linac Coherent Light Source will be of central  importance.
<link http://www.hfsp.org/>Human Frontier Science Program</link>
<strong>Further Information:</strong>
Helmholtz-Zentrum Berlin für Materialien und Energie
Dr. Philippe Wernet<br />Tel.: (030) 8062-13448
Press Office<br />Dr. Antonia Rötger<br />Tel.: (030) 8062-43733<br />Fax: (030) 8062-42998
<link http://www.helmholtz-berlin.de>www.helmholtz-berlin.de</link> ]]></content:encoded>
			<category>Mikrosysteme und Materialien </category>
			<category>Photonik und Optik</category>
			<category>Erneuerbare Energien und Photovoltaik</category>
			<category>IGAFA-Wissenschaft</category>
			
			
			<pubDate>Fri, 17 May 2013 10:37:00 +0200</pubDate>
			
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			<title>MagForce AG Receives Further Patent Related to NanoTherm® Therapy</title>
			<link>http://www.adlershof.de/en/newsview/article/adlershofer-waffen-gegen-tumore/?no_cache=1&#38;cHash=07b9eb9490988a4d1fb49f5e342ed7da</link>
			<description>European patent granted for nanoparticle-drug conjugates </description>
			<content:encoded><![CDATA[MagForce AG, a leading medical technology company in the field of nanomedicine in oncology, announced today that the Company has been granted a further European patent for its NanoTherm® therapy, for which the opposition period has now expired. Patent EP 1871423 B1 relates to a new generation of NanoTherm® particles in the form of nanoparticle-drug conjugates, which are suitable for drug delivery systems. 
Nanoparticle-drug conjugates inside a tumor can be heated selectively by an alternating magnetic field leading to a temperature-dependent release of the drug inside the tumor tissue producing a high local drug concentration. Additionally the known synergistic effects of chemotherapy in combination with hyperthermia can be utilized.<br /><br />&quot;The locally limited and externally controllable drug release by means of the now patent-protected conjugates is expected to clearly reduce the mostly considerable side-effects of conventional chemotherapeutic agents. Combining thermotherapy with nanoparticle-bound chemotherapy could also substantially increase the effectiveness of the chemotherapeutic agent in tumor treatment and reduce the number of nanoparticles required to destroy the cancer cells,&quot; commented Prof. Dr. Hoda Tawfik, COO and co-CEO of MagForce.<br /><br /><b>About NanoTherm® Therapy<br /></b>The NanoTherm® Therapy is a new approach for the local treatment of solid tumors. The principle of the method is the direct introduction of superparamagnetic nanoparticles into a tumor and their subsequent heating in an alternating magnetic field. The nanoparticles are extremely small (approximately 15 nanometers in diameter) and contain an iron oxide core with an aminosilane coating. The particles are activated by a magnetic field that changes its polarity 100,000 times per second, and heat is produced. Depending on the duration of treatment and the achieved intratumoral temperatures, the tumor cells are either directly destroyed (thermal ablation) or sensitized for concomitant chemotherapy or radiotherapy (hyperthermia). With this new therapeutic approach, it is possible to combat the tumor from the inside out, thereby sparing surrounding healthy tissue. The nanoparticles remain in place at the treatment area, allowing for repeat treatments and the integration of multimodal therapy concepts. NanoTherm® Therapy has regulatory approval in 27 European countries.<br /><br /><b>About MagForce AG<br /></b>MagForce AG is a leading medical technology company in the field of nanomedicine in oncology. The Company's proprietary, NanoTherm® therapy, enables the targeted treatment of solid tumors through the intratumoral generation of heat via activation of superparamagnetic nanoparticles. NanoTherm®, NanoPlan®, and NanoActivator(TM) are components of the therapy and have received EU-wide regulatory approval as medical devices for the treatment of brain tumors. MagForce, NanoTherm®, NanoPlan®, and NanoActivator(TM) are trademarks of MagForce AG in selected countries. For more information, please visit <link http://www.magforce.com>www.magforce.com</link>.
Source: 
<span style="FONT-FAMILY: &quot;Arial&quot;, &quot;sans-serif&quot;"><link http://hugin.info/143761/R/1699666/560772.pdf>MagForce_Press Release_May 07, 2013</link></span>]]></content:encoded>
			<category>Mikrosysteme und Materialien </category>
			<category>Top Stories</category>
			
			
			<pubDate>Tue, 07 May 2013 12:02:00 +0200</pubDate>
			
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			<title>Adlershof Special 28: Renewable Energies</title>
			<link>http://www.adlershof.de/en/newsview/article/adlershof-special-28-erneuerbare-energien/?no_cache=1&#38;cHash=8fdfd8f5120ca51bcae251befab277db</link>
			<description>For the future of energy efficiency</description>
			<content:encoded><![CDATA[Model urban district // For the future of energy efficiency // Nucleus for innovative storage solutions // Tapping into heaven and earth // Climate climbers // Energy efficiency made in Adlershof // The architecture of dialogue // Great openness // Adlershof in figures]]></content:encoded>
			<category>Adlershof Special Cover</category>
			<category>Top Stories</category>
			
			
			<pubDate>Tue, 23 Apr 2013 23:02:00 +0200</pubDate>
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			<title>Model urban district</title>
			<link>http://www.adlershof.de/en/newsview/article/staedtisches-modellquartier/?no_cache=1&#38;cHash=4f8a8968022f49cce68931562fa4b6c2</link>
			<description>By Prof. Dr. Diethard Mager, Federal Ministry of Economics and Technology</description>
			<content:encoded><![CDATA[One of the largest projects to date affecting the whole of society in Germany, the turnaround in energy policy is a great opportunity for innovation and growth. In addition to converting the nation’s power supply to one based largely on renewable energies, this turnaround in energy policy sees its central fields of activity above all in measures for energy efficiency and the development of new energy technologies.
With its 6th Energy Research Programme, the federal government has created the crucial conditions on the energy sector that science and the economy need to work together on innovations. The most important venues for the turnaround include cities and agglomerations. Here is where building stocks and the energy infrastructure are concentrated. Here is where the Federal Ministry of Economics is launching its funding initiative “Energy Efficient City”, focusing on the energy related transformation of model urban districts.
An important lighthouse project is currently being realised in Berlin Adlershof: “High Tech – Low Ex: Energy Efficiency Berlin Adlershof 2020” will be casting light on many facets of new technologies and concepts for the energy supply of the future. The project’s objective to cut the location’s primary energy needs by 30 percent by 2020 is ambitious. The location’s operator WISTA-MANAGEMENT GMBH, with support of the Senatsverwaltung für Stadtentwicklung und Umweltschutz, the TU Berlin and the local utility BTB have pooled their resources to achieve this. The Federal Ministry of Economics and Technology is funding this exemplary project.
In conjunction with the innovative power and expertise of the local institutes and companies operating on the energy sectors, Adlershof provides the best conditions for demonstrating how an “actual turnaround in energy policy” can be implemented in a complex urban district and how ambitious energy saving targets can be achieved.
With this goal in mind, I wish all involved in this project every success!]]></content:encoded>
			<category>Essay</category>
			<category>Adlershof Special</category>
			<category>Adlershof Special Cover</category>
			<category>Adlershof Special Titel</category>
			<category>Editorial</category>
			
			
			<pubDate>Tue, 23 Apr 2013 22:47:00 +0200</pubDate>
			
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			<title>HIGH TECH – LOW EX: For the future of energy eficiency</title>
			<link>http://www.adlershof.de/en/newsview/article/high-tech-low-ex-zur-zukunft-der-energieeffizienz/?no_cache=1&#38;cHash=2a4e6b678b20f7612b13e5c3f8e7e8d6</link>
			<description>An interview with Beate Mekiffer, head of this pilot project in Adlershof, one of the largest inner...</description>
			<content:encoded><![CDATA[<h4>Why does Adlershof need a new energy concept?</h4>
Recent years have seen a huge boost to growth in Adlershof, and its energy needs will grow in line with the resulting expansions. Investors of today and tomorrow want to work on an energy efficient basis and save costs, and for this we must create the necessary environment. The legal provisions for energysavings must be fulfilled. Not least of all, we cannot justify our image as a high tech location when we do not adopt a pioneering role here.
<h4>What are the targets the project is supposed to achieve?</h4>
We predicted that the primary energy needs will grow from the present 360 GWh to about 825 GWh in 2020 when the location operates at full power without a new energy concept. We intend to reduce this consumption by at least 30 percent, test new energy saving technologies and create transferable planning instruments. Funded by the Federal Ministry of Economics, the joint project of the TU Berlin, BTB, and WISTA-MANAGEMENT GmbH is creating a model for the turnaround in energy policy, the utilisation of renewable energies, and the implementation of energy efficiency measures.
<h4>How do you intend to achieve that?</h4>
We’re still in the concept phase, but so far we have identified the fields with the greatest efficiency potential, amongst other things. These include improvements of the primary energy factor for the electricity supply, new concepts for air conditioning, e.g. in the form of new storage setups, and intelligent networking as well as control. Also, we must not neglect research into acceptance and the integration of the involved groups.
<h4>Can you name some examples?</h4>
One successful example of reduced electricity consumption by air conditioning systems is provided by the physics building with its facade greening cover and cooling system that utilises the evaporative cold of water. Electricity for Adlershof is also being produced by means of cogeneration. We intend to reroute the excess heat generated in summer to efficient absorption refrigeration machines. Also so-called aquifers, i.e. rock strata bearing groundwater, are to serve as seasonal buffers for heat and cold. Wind energy from the surrounding area could be converted into cold that can then be stored there. In particular, energy networking and energy management will adopt a major role at the location in future.
<h4>What’s the next step for the project?</h4>
This year we are planning to launch the first subprojects. In 2018, these will then be followed by further technical projects and a subsequent phase of project monitoring.<br /><br />By Andreas Heins for <link 468 _top internal-link "Read current Adlershof Special">Adlershof Special</link>]]></content:encoded>
			<category>Erneuerbare Energien und Photovoltaik</category>
			<category>Adlershof Special Titel</category>
			<category>Top Stories</category>
			
			
			<pubDate>Tue, 23 Apr 2013 22:26:00 +0200</pubDate>
			
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			<title>Nucleus for innovative storage solutions</title>
			<link>http://www.adlershof.de/en/newsview/article/keimzelle-fuer-innovative-speicherloesungen/?no_cache=1&#38;cHash=f39435a214b5af6b912cdebb129c8746</link>
			<description>Approaches for a self-sufficient energy supply</description>
			<content:encoded><![CDATA[From 2014, the 5,000 inhabitants of the Azorean island of Graciosa can expect far greater independence from the mainland. The Adlershof company Younicos will be converting the island’s electricity grid to provide the greater part of its power from renewable sources. The Younicos production halls are already operating a model that simulates the processes on a scale of 1:3.
The new system on the island will consist of photovoltaic modules and wind energy converters as the power supplies and a hybrid energy storage system delivering 2.7 MW. Its combination of sodium-sulphur and lithium ion batteries provides fast compensation for any fluctuations in the grid.
“The project demonstrates that a stable supply with renewable energy is possible with the storage technologies available today,” explained Managing Director Clemens Triebel. “According to the model study, the diesel generators that are currently providing the island’s electricity will now be running only for about 1600 hours a year.” This means that the sun and wind can provide a good 70% of the island’s energy needs. Set up in 2008 by former Solon cofounder Clemens Triebel and other Clean-Tech pioneers, Younicos intends to install the system on other islands. In addition, a 5 MW battery park will soon be set up in the north of Germany.
Self-sufficient energy supply – this is also the business line pursued by Erich Hans Bosch. A former Younicos employee, the engineer gained momentum with his own company Renewable Storage two years ago. Bosch’s system of self-sufficient energy supply “can deliver up to 400 kW of electricity,” he claims, and is therefore capable of fulfilling the power demand of entire villages. This would be an interesting solution for holiday resorts in nature reserves and for production sites far from the electricity grid, for instance in developing countries.
These are the operating grounds of the company Heliocentris Energy Solutions AG. In 2012, the Mozambican mobile telephone operator mcel ordered 500 energy management systems from this Adlershof company. They allow the remote control of base stations, thereby reducing energy consumption and maintenance costs. “The solutions available today can help to reduce diesel consumption by up to 50 percent and operating costs by up to 70 percent,” explained CFO András Gosztonyi.
In 2012 Heliocentris achieved a turnover of Euro 7.5 million, more than double the previous year’s figure. The board is expecting yet another significant boost to turnover in 2013 as well. With 130 personnel, subsidiaries in Vancouver and Dubai, offices in Johannesburg and Singapore, and customers in over sixty countries, Heliocentris has adopted a powerful<br />international position.
By Mirko Heinemann for <link 468 _top internal-link "Read current Adlershof Special">Adlershof Special</link>
<link http://www.younicos.com>www.younicos.com</link> <br /><link http://www.heliocentris.com>www.heliocentris.com</link>]]></content:encoded>
			<category>Erneuerbare Energien und Photovoltaik</category>
			<category>Adlershof Special</category>
			<category>Adlershof Special Cover</category>
			<category>Adlershof Special Titel</category>
			<category>Editorial</category>
			
			
			<pubDate>Tue, 23 Apr 2013 22:17:00 +0200</pubDate>
			
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			<title>Tapping into heaven and earth</title>
			<link>http://www.adlershof.de/en/newsview/article/himmel-und-erde-angezapft/?no_cache=1&#38;cHash=7fed2b6ad345c3905efa82ab459576ee</link>
			<description>How renewable energies are utilised in the Technology Park Adlershof</description>
			<content:encoded><![CDATA[In Adlershof, solar energy is on the brink of breaking a new local record. At the latest in<br />June, tenants will be able to move into the offices and laboratories of the new photovoltaics<br />centre covering 8,000 square metres. This building will then contribute its rooftop solar<br />modules for a total of 32 photovoltaic installations in Adlershof, delivering a rated power of<br />over 2 MW in total. The “Adlershof solar power station” is the most prominent example for<br />the utilisation of renewable energies in the Technology Park.
Ever since the first solar installation was put into operation in 1998 on the facade of the Environmental, Bio‑ and Energy Technology Centre (ZBU1), Adlershof has been home to a growing number of innovative solar energy systems. Some examples are the thin film solar cells of copper indium sulphide integrated in the glass facade of the Soltecture GmbH office building or the bifacial cells on the Studio H building in the Media City whose two active sides have a greater energy yield than the usual unifacial designs.
Yet Adlershof also utilises renewable energy sources that are not solar based. Since 2011, the electronics company FUSS-EMV has been operating a heat pump that draws its energy from twenty earth probes at depths of nearly 100 metres. “We can therefore provide 99 percent of our heat supply to our latest production halls of 4,500 square metres,” reported Managing Director Volker Keddig. FUSS-EMV intends to use the savings in heating costs to finance the investment of Euro 40,000–50,000. “We’re still waiting for the first bill, but we’re confident that we can reduce our heating costs by 50 percent,” claimed Keddig. FUSS-EMV is so convinced of this technology that it has already drilled a dozen holes for the third, 3,000 square metres section of their building.
Soon the drillers in Adlershof could penetrate even further underground. According to Bernd Ludwig of the operating company WISTA-MANAGEMENT, there are currently investigations underway for so called deep geothermics beyond the 100 metre line. These drill holes are more complex than for near surface geothermics and must be approved under mining legislation. Nevertheless they promise a greater energy yield. When these plans are realised, the underground heat could be fed centrally into the local heating grid for the Technology Park.
By Manuel Berkel for <link 468 _top internal-link "Read current Adlershof Special">Adlershof Special</link>
<link http://www.fuss-emv.de>www.fuss-emv.de</link> <br /><link http://www.adlershof.de/pv>www.adlershof.de/pv</link>]]></content:encoded>
			<category>Erneuerbare Energien und Photovoltaik</category>
			<category>Adlershof Special</category>
			<category>Adlershof Special Cover</category>
			<category>Adlershof Special Titel</category>
			<category>Editorial</category>
			
			
			<pubDate>Tue, 23 Apr 2013 22:03:00 +0200</pubDate>
			
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			<title>Climate Climbers</title>
			<link>http://www.adlershof.de/en/newsview/article/ranken-fuers-klima/?no_cache=1&#38;cHash=364570cf6e150e769854634e5a05f0c4</link>
			<description>Building climatization by a façade greening system in Adlershof</description>
			<content:encoded><![CDATA[As a means to save high tech air conditioning energy, the physics building of Humboldt-Universität zu Berlin (HU) in Adlershof has put on a coat of vegetation that regulates temperature – an extraordinary model.
Sparse winter light still penetrates the large windows on Newtonstrasse, but the first rays of the spring sun will set everything in motion. The first delicate leaves and buds of wisteria, clematis and grape ivy will sprout and, with every sunny day, grow that little bit further up the futuristic facade of the Humboldt- Universität’s (HU) physics building.
As soon as the light intensifies and the heat starts to become oppressive, they will grow tighter until they have provided a protective envelope for the glass walls of the laboratories and auditoriums in the height of summer. It’s a beautiful sight, but there’s more besides: an extraordinary urban ecology project for the sustainable use of water and energy. In a simple and ecofriendly manner, these climbing plants provide what is otherwise the responsibility of energy devouring air conditioners: they cool the building.
From the very outset, the experiment was supervised and monitored by scientists from the Technische Universität Berlin (TU), the HU and Neubrandenburg University of Applied Sciences. They measure the quantities of water consumed by each plant species and the cooling effects they generate through evaporation. Temperatures and emissions are documented, and the levels in the rainwater channels regulated and monitored via a web based computer system. Marco Schmidt was there from the first. Today, this engineer presents his work all over the world, when he talks about the project and encourages others to do the same and refine the results. “Impermeable surfaces like roofs and roadtops alter the microclimate,” he explained. “Solar irradiation converted to heat makes the indoor environment uncomfortable.”
On the other hand, roofs and facades with vegetative cover – like on the physics building in Adlershof – deflect the blazing heat of high summer: they provide shade and evaporating water has a cooling effect. The use of rainwater is practical anyway: “There are a growing number of sealed surfaces in urban areas. Drainage channels must then be laid that can draw off accruing rainwater,” explained Schmidt.
The Physics Institute is one of the few buildings in Germany that does not have an external rainwater drainage system. Instead, the water is collected in cisterns and used for irrigation. The rest flows into a pond in the inner courtyard where it seeps away. Rainwater also has an active role in the institute’s air conditioners: Even at outside temperatures of 30° C, the air is precooled in the heat exchanger to such an extent that it arrives in the rooms at a pleasant 20–22° C – without any other artificial cooling methods. Engineers and scientists come to Adlershof from all over the world to tour this installation. After all, the energy needed to cool buildings and its costs are growing everywhere.
By Karla Zuber for <link 468 _top internal-link "Read current Adlershof Special">Adlershof Special</link>
<link http://www.gebaeudekuehlung.de>www.gebaeudekuehlung.de</link>]]></content:encoded>
			<category>Erneuerbare Energien und Photovoltaik</category>
			<category>HU-Campus-Leben</category>
			<category>Adlershof Special</category>
			<category>Adlershof Special Cover</category>
			<category>Adlershof Special Titel</category>
			<category>Editorial</category>
			<category>Top Stories</category>
			
			
			<pubDate>Tue, 23 Apr 2013 12:49:00 +0200</pubDate>
			
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			<title>Energy efficiency Made in Adlershof</title>
			<link>http://www.adlershof.de/en/newsview/article/energieeffizienz-made-in-adlershof/?no_cache=1&#38;cHash=f3bc7dfad208088d376a315fa983f47c</link>
			<description>The modern district heating network of the utility company BTB</description>
			<content:encoded><![CDATA[“Local cogeneration is our method of choice,” are the words of Frank Mattat, Managing Director of the Berlin utility company BTB, whose customers also include the science location Adlershof. BTB Blockheizkraftwerks‑, Träger- und Betreibergesellschaft mbH Berlin operates one of the most modern district heating networks in Berlin.
At the Adlershof power station on Albert-Einstein-Strasse, the district heating network is supplied with 2,700 hp (2,000 kW) from four gas-fired engine-based combined heat and power (CHP) stations. Besides the two megawatts of heat output, the same systems also deliver an additional 2 MW of electricity. The energy source natural gas is therefore converted into the usable energies heat and electricity with high efficiency.
Compared with conventional generation in separate power and heating stations, cogeneration presents two advantages: energy savings on the one hand and considerably less pollution to the environment on the other. Unlike large-scale industrial cogeneration, however, engine based CHP systems are not only smaller and more efficient, they are also more flexible and can be regulated with greater ease. For even greater improvements to these properties, the power station includes five large heat accumulators filled with 2,000 cubic metres of water as the storage medium. Electricity can therefore be generated also when the demand for heating temporarily drops. The same purpose is served by a photovoltaic system with a peak delivery of 21 kW on the power station’s roof.
BTB, whose innovative technology and products have long adopted unshakable positions side by side with top dog Vattenfall, has its eye on further targets. One of these is to raise the electricity supply for the science city from 30 kV to 110 kV and thus meet the constantly growing Adlershof demand. Specifically in the field of electricity, BTB intends to develop and offer further models that serve to stabilise the grid far beyond the Adlershof borders.
Ever since solar and wind power has been generated on a large scale, this too has become a top subject at BTB. Ideal for this are locally operating, easily regulated CHP systems. “That is our core expertise, and we can guarantee supply stability and reliability,” emphasised Frank Mattat. He went on to explain that this also includes the subject of &quot;Power to Heat&quot;, the utilisation of electricity generated from renewable sources or surplus electricity for the supply of heat. “We’ll achieve this in the next three years,” he stated with conviction.
Outside of the science city and its heat grid, which incidentally includes Gropiusstadt and parts of Schöneweide and Köpenick, BTB has also become established as a successful contractor. For instance, housing industries are supplied with electricity and heating generated by district heat stations and CHP systems that BTB operates in the name of its customers. The latest project is “Genossenschaftsstrom”, a cooperative electricity venture that was developed in collaboration with the housing association 1892 and that supplies electricity from photovoltaic installations on the facades of the association’s residential buildings.
By Klaus Oberzig for <link 468 _top internal-link "Read current Adlershof Special">Adlershof Special</link>
<link http://www.btb-berlin.de>www.btb-berlin.de</link>]]></content:encoded>
			<category>Erneuerbare Energien und Photovoltaik</category>
			<category>Adlershof Special</category>
			<category>Adlershof Special Cover</category>
			<category>Adlershof Special Titel</category>
			<category>Editorial</category>
			
			
			<pubDate>Tue, 23 Apr 2013 11:31:00 +0200</pubDate>
			
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