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The Homburg Municipal Works is backing fuel cells

Homburg Municipal Works Backing Fuel Cells

The Homburg Municipal Works is today putting a Fuel Cell Combined Heat and Power unit (FC CHP) into operation in a single family home to create highly efficient energy provision on the spot. The decision to deploy this promising technology for local energy provision follows a practice-related endurance test stretching over several years with FC CHP units in full-load operation at the Homburg Municipal Works. The fuel cell micro CHP units installed by the Hamburg-based manufacturer, Baxi Innotech, is now in its final test phase and due to be launched on the market in 2015.

Regional energy supply: as efficient as possible, and easing the burden at peak periods

The future of energy supply is local is a key statement in the light of the energy revolution. Along with the renewable energies and intelligent storage strategies, combined heat and power (CHP) – the simultaneous generation of heat and electricity – has great potential. What has up to now been generated for much larger demands by thermal power stations is now being provided by FC CHPunits in single and two-family homes.

“Unlike a thermal power station which uses a motor to produce energy, the fuel cell works electrochemically. The advantage of this installation is that it can be adapted extremely precisely to a family’s needs,” is how Markus Müller, energy advisor at the Homburg Municipal Works, explains this technology. Intelligently linked and coupled, a large number of fuel cell CHP units within a region can ensure precisely timed energy distribution over a larger area – and even make a contribution towards easing the burden on the network at peak periods.

Regional energy supply: as efficient as possible, and easing the burden
at peak periods
The future of energy supply is local is a key statement in the light of the en- ergy revolution.
Along with the renewable energies and intelligent storage strategies, combined heat and power (CHP)
– the simultaneous generation of heat and electricity – has great potential. What has up to now
been gener- ated for much larger demands by thermal power stations is now being pro-
vided by FC CHPunits in single and two-family homes.

FC CHP technology as a local means of supply: in the “ene.field” practice test throughout Europe

“There are many heating appliances in the cellars of Germany that are more than ten years old. Modern heating equipment can make an important contribution to protecting our environment by, for example, saving energy and reducing CO2 emissions.  Thermal power stations that simultaneously generate heat and energy are suitable for larger buildings constructed for several families or for commercial purposes. But for single-family homes they are often too big and consequently unviable.  And this is where the FC micro CHP technology will be extremely useful in future.  To drive  forward  its market introduction,  we have decided to take part in the ‘ene.field’ European  field test,”  said  Wolfgang  Ast,  Managing  Director  of  the  Homburg  Municipal Works. In this project – promoted by the EU – around 1,000 appliances are to be tested in residential buildings in twelve EU member states. The unit in Homburg is one of the first two German appliances to be deployed as part of the European field test programme.

Highest efficiency compared with other technologies

The project partner for the Homburg Municipal Works is Baxi Innotech GmbH from Hamburg.  The Managing Director of the company, Guido Gummert, travelled from Hamburg to Homburg to put the field test appliance into operation. “Energy has become a valuable resource. A fuel cell heating appliance ensures that it is managed as efficiently as possible. This needs-based type of on-the-spot heat and energy provision is considered highly efficient and has a total efficiency of 96 per cent. Compared with all other known heating technologies it performs significantly better,” is how this impassioned process engineer puts it. “We are now at the technical fine tuning of the components stage. The market launch will be in 2015.

The Bossler family, in the Jägersburg district of Homburg, is now one of the pioneers in Germany: A fuel cell driven heating appliance is now standing in their cellar. “I immediately proposed to my family that we apply to take part in the test when I read about the Municipal Works’ invitation. I am promising myself lower heating costs and, by generating current at the same time, even further cost savings.  Now  I  can’t  wait  to  see  the  results,”  said  Friedrich Bossler,  as  he  explained  his  commitment  to  the  fuel  cell  as  a  Municipal Works customer.

The Municipal Works have already successfully installed and tested fuel cells in their own technical facilities. “With this test in a single-family household we will gain valuable experience.  We are considering offering the construction and operation of fuel cell heating units – in partnership with the installation trade – as a new service for our customers in the future,” said Wolfgang Ast, underlining the Municipal Works’ commitment.

Background: the fuel cell

In a fuel cell, hydrogen and oxygen are separated by a membrane and ex- change electrons with each other through an electrical conductor. This elec tron flow makes the fuel cell into a source of current. In addition, any heat resulting from this process can be used for heating the building and for hot water. In the Homburg appliance, provided by Baxi Innotech, a reformer ex- tracts the necessary hydrogen from natural gas which already contains four atoms of hydrogen. For this reason, the unit only needs to be connected to the existing gas supply provided by the Municipal Works. To cover the demand for heat at peak periods, an additional gas-powered calorific boiler is integrated in the unit.

The Homburg Municipal Works

The Homburg Municipal Works supplies customers in the city of Homburg and the surrounding area with natural gas, electricity, district heating and drinking water. In 1897 the company was founded with the specific objective of attracting industry and commerce through the provision of its own energy supply. Today Homburg has 43,000 inhabitants and provides jobs for over 30,000 people, particularly through its industrial enterprises and its university hospital. With its expertise in supplying larger industrial customers, the company operates successfully in this market segment throughout Germany.

Since 2008, Homburg  Municipal  Works has been continuously  building  its own  combined  heat  and  power  generation  facilities,  such  as  their  district heating plants and, in the area of renewable energy, it has been building its own photovoltaic installations. Since the end of 2012, customers’ photovoltaic installations and those of the Municipal Works have been generating a total output of 15 MW of electrical energy from the roofs of Homburg. Additionally  the Municipal  Works  has set up micro  combined  heat  and  power (CHP) facilities. It has already successfully tested fuel cells in two natural gas stations.

In 1991 the Municipal Works took a share in the Homburg CHP power station as the majority shareholder.  The generation of heat and current from coal was converted to natural gas there, the network was extended and new co- operation partners were found. The Municipal Works was able to gain experience  in many projects  throughout  Germany  for increasing  energy  efficiency: through its involvement in a North Sea wind farm, for example, and a solar farm in Baden Württemberg, as well as with Thüga Erneuerbare Energien  GmbH  und  Co  KG  (Thüga  Renewable  Energies)  in  Hamburg.  The Municipal Works was able to realize a major project in 2011 with the construction of a plant for the use of excess heat from tyre production on the premises of the Michelin Tyre plant in Homburg.


Baxi Innotech GmbH is a development company for fuel cell heating units. Founded in 1999, the company took up its position as a subsidiary of the Baxi Group in 2002. It then advanced to become the brain pool of the Group for innovative product developments based on combined heat and power technology. In close cooperation and partnership with international suppliers, energy supply companies and the specialist trade, Baxi Innotech has developed the fuel cell heating unit for single family homes. Since 2008, this Hamburg-based company has been participating in the Callux project, a practice test carried out by the German government and industry. Baxi Innotech has also been a partner in the EU-promoted ene.field project since 2012. Both projects follow the stated objective of preparing stationary fuel cell heating units for the market, particularly for single family homes. Since November 2009, the Baxi Group – along with Baxi Innotech – has been part of the BDR Thermea constellation. With its innovative and top quality products and ser- vices, this Group – formed out of a merger with the former DeDietrich Remeha  – is active  in even  greater  measure  in traditional  and  international growth markets.

October 30, 2013 - 12:11 PM Comments: Closed

Stanford University Awarded Fuel Cell Grants

STANFORD, Calif.,  –Stanford University’sPrecourt Institute for Energy , the Precourt Energy Efficiency Center and the TomKat Center for Sustainable Energy have awarded 11 seed grants totaling $2.2 million for promising new research in clean technology and energy efficiency.

The seed funding supports early work on concepts that have the potential for very high impact on energy production and use. Through a competitive process, two committees of faculty and senior staff awarded the grants to Stanford researchers from a broad range of disciplines, including engineering, physics, economics, business, communication and education.

Precourt Institute for Energy grants

The Precourt Institute for Energy, an umbrella organization for energy research and education at Stanford, will fund the following three studies and jointly fund one study to be administered by the TomKat Center:

Functionalized Graphene-Platinum Composites for Fuel Cells: Investigators will test if dispersed platinum nanoparticles grown on graphene (one-atom thick sheets of carbon) can reduce the amount of expensive platinum needed in fuel cells while functioning as a highly efficient catalyst. Principal Investigators (PIs): David Goldhaber-Gordon , Physics; Fritz Prinz , Mechanical Engineering and Materials Science and Engineering.

Self-Regenerating Fuel Cells Running on Natural Gas: To help in the design of self-restoring catalysts for ceramic fuel cells, which could run on natural gas rather than hydrogen, this project will illuminate the fundamental chemical and structural transformations involved. PIs: Robert Sinclair Materials Science and Engineering; William Chueh , Materials Science and Engineering and the Precourt Institute.

October 30, 2013 - 8:03 AM Comments: Closed

De l’hydrogène stocké sous très haute pression dans un réservoir en matériaux composites

EADS Composites Aquitaine vient de franchir une étape majeure au sein du programme Horizon Hydrogène Energie (H2E) en obtenant l’homologation d’un réservoir de 143 litres en matériaux composites destiné à stocker et transporter jusqu’à 200 kWh d’hydrogène à très haute pression.

Depuis 2008, EADS Composites Aquitaine est engagée dans un programme mobilisateur pour l’Innovation industrielle. Baptisé H2E, ce programme est piloté par Air Liquide, en tant que Chef de File. Il regroupe 19 partenaires publics et privés français et a pour objectif de contribuer à faire émerger en France et en Europe une filière de l’hydrogène énergie durable et compétitive.
Déjà des clients précurseurs utilisent des technologies développées dans ce Programme : des piles à combustible pour alimenter des sites isolés telecom, des systèmes hydrogène pour des chariots élévateurs électriques. Ces générateurs d’électricité fonctionnant à l’hydrogène ne rejettent que de l’eau et bénéficient d’une grande autonomie, ouvrant naturellement ces technologies vers l’automobile.

EADS Composites Aquitaine a la responsabilité de la partie Réservoir à Haute Pression de la pile à combustible. Ces réservoirs transportables compacts et plus légers que les réservoirs industriels introduisent une rupture technologique dans la logistique actuelle de l’hydrogène, ils faciliteront l’usage des Piles à Combustible et réduiront le coût de l’hydrogène livré. Grâce à une équipe dédiée en lien avec des laboratoires de recherche et des partenaires industriels, ainsi qu’à la maîtrise d’innovations technologiques complexes, EADS Composites Aquitaine développe sans relâche, depuis 5 ans, une gamme de réservoirs en fibre de carbone, d’une capacité pouvant aller jusqu’à 300 Litres et une pression jusqu’à 700 bar.

L’homologation de ce réservoir, acquise après une batterie de tests et essais exigés par la réglementation et indispensables pour démontrer la sécurité et la fiabilité des équipements, ouvre la porte vers de nouveaux challenges avec le démarrage de laproduction en série et à terme la montée en cadence à plusieurs milliers de réservoirs par an. La fabrication et la vente de réservoirs en matériaux composites pour le stockage de gaz sous très haute pression devient donc une réalité industrielle, plaçant EADS Composites Aquitaine parmi les précurseurs dans ce domaine technologique au niveau mondial.

Le groupe EADS Sogerma co-finance le développement de ce programme de diversification, issu directement des activités des réservoirs Haute Pression pour la Défense et l’Espace. Air Liquide soutient le lancement en série et une première commande de réservoirs a été signée. De belles perspectives de développement pour EADS Composites Aquitaine, également soutenu dans cette démarche par Bpifrance (OSEO) et la Région Aquitaine. Ce programme témoigne d’une volonté de proposer aux clients des alternatives durables aux solutions énergétiques actuelles, et permet ainsi de développer l’emploi industriel dans la région Aquitaine.

October 30, 2013 - 5:46 AM Comments: Closed