Ess & Max Iv Benchmark and Situation Analysis Report
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ESCO-Contracting in Danish Municipalities
Energies 2013, 6, 2407-2427; doi:10.3390/en6052407 OPEN ACCESS energies ISSN 1996-1073 www.mdpi.com/journal/energies Article Greening Public Buildings: ESCO-Contracting in Danish Municipalities Jesper Ole Jensen 1,*, Susanne Balslev Nielsen 2 and Jesper Rohr Hansen 1 1 Department of Town, Housing and Property, Danish Building Research Institute, A.C.Meyers Vænge 15, Copenhagen DK-2450, Denmark; E-Mail: [email protected] 2 Department of Management Engineering, Technical University of Denmark, Bygning 424, Kongens Lyngby DK-2800, Denmark; E-Mail: [email protected] (S.B.N.) * Author to whom correspondence should be addressed; E-Mail: [email protected]; Tel.: +45-9940-2358. Received: 27 February 2013; in revised form: 11 April 2013 / Accepted: 24 April 2013 / Published: 6 May 2013 Abstract: This paper presents current research on Danish municipalities’ use of Energy Service Companies (ESCO) as a way to improve the standard of public buildings and to increase energy efficiency. In recent years more and more municipalities have used ESCO-contracts to retrofit existing public buildings, and to make them more energy efficient. At the moment 30 municipalities (of the 98 municipalities in Denmark) are involved in, or preparing, ESCO contracts. Nevertheless, ESCO-contracting still faces many challenges on the Danish market, as there is a widespread skepticism towards the concept amongst many stakeholders. The purpose of this paper is to discuss the various experience gained so far by municipalities use of ESCO-contracting, the different approached to ESCO-contracting being used in practice, as well as the different viewpoints drivers and barriers behind the development. -
Stakeholder Involvement Work Package 8
Stakeholder Involvement Work Package 8 European Union European Regional Development Fund Kop 2 Fife Coast and Countryside Trust was responsible for the coordination of Work Package 8: “Stakeholder Involvement”. This report was prepared by Julian T. Inglis, Fulcrum Environmental Management, on behalf of the Trust. The thoughts and opinions expressed in this report are those of the author and do not necessarily reflect the views of the Trust or other partners in the SUSCOD project. The author is solely responsible for the accuracy of the information contained in the report. Please send your comments to [email protected] Table of Contents Summary 6 Section 1: Introduction to stakeholder involvement in the SUSCOD project .........................................8 Section 2: Process for developing the final report on stakeholder involvement .............................. 11 Section 3: A typology of the main categories of stakeholder involvement .......................................... 14 a. Partnerships ............................................................................................................................................................. 15 (i) Coastal Partnerships ............................................................................................................................................... 15 Coastal partnerships in Scotland ............................................................................................................... 16 Coastal Partnerships and emerging marine planning partnerships -
MAX IV Stability Task Force TW
MAX IV Stability Task Force Update Topical Workshop on Diagnostics for Ultra-Low Emittance Rings (TW-DULER) Brian Norsk Jensen DLS UK, 20th of April 2018 Outline ● Why work on stability? ● The Stability Philosophy at MAX IV ● Tolerances and Goals ● Examples from Construction work for MAX IV ● What has been done inside the Lab? ● Some Ongoing Stuff ● Some things I think we should do Brian Norsk Jensen, MAX IV Laboratory TW-DULER, Diamond Light Source UK, 20/4 2018 Mission: Stable Beams Brian Norsk Jensen, MAX IV Laboratory TW-DULER, Diamond Light Source UK, 20/4 2018 Why Work on Stability? ● Our users need Stable Measurements – Flux – Pointing Stability – Quality of Light (polarization, coherence, free of frequency content,…) – Availability ● The MAX IV Stability Task Force Is Responsible for All Stability! – Accelerators and Beamlines – Procurement Participation – Vibrations – Mechanical – Thermal – Logging – Collecting Input – Problem Solving – Characterization: Seismometers, Accelerometers, Vibrometer, Shaker, … ● Only One Person Specifically Allocated to this Work – I Get and Need Help from Many Colleagues • Mechanical, Accelerator Physicists, IT, Control Room and Beamline Staff, … – I have Great Help from People at the LTH, Dept. of Construction Sciences!!! Brian Norsk Jensen, MAX IV Laboratory TW-DULER, Diamond Light Source UK, 20/4 2018 Strategy and Approach ● Challenges are not always overcome by Fancy or Traditional Solutions ● ZOOM Out! ● Cross Disciplines, Interconnectedness of Things! – Mechanical and Thermal Stability, Magnetic -
The MAX IV Laboratory MAX IV
Reference network for the new facility at MAX IV Laboratory Pawel Garsztka, MAX IV Laboratory, Lund, SWEDEN Bengt Sommarin, MAX IV Laboratory, Lund, SWEDEN MAX IV The new facility at MAX IV Laboratory consists of the following parts: • 250 meter long LINAC with the maximum 3.4 GeV energy • two storage rings: the smaller ring will have electron energy of 1.5 GeV and a circumference of 96 meters. The bigger ring will have electron energy of 3GeV and a circumference of 528 meters. • SPF (Short-Pulse Facility) In the first phase 7 beamlines will be build. In total 30 beamlines at the two rings will be possible. In addition the MAX IV design also includes an option for the FEL (Free Electron Laser) as a second development stage of the facility. The alignment group is a part of the stability group at MAX IV Laboratory and consisting of two people. Our general task for the near future is to establish the reference network which will be AT 401 in the mock up used for the alignment of all accelerator and beamilne components for the new facility. NETWORK All observations (in three dimensions) will be carried out with only The reference network will be divided in 4 groups joined with one instrument: Leica AT401 laser tracker. The raw data will be each other: pre-analyzed in the Spatial Analyzer software. The final solution, • network 1 - in the ca 300m long LINAC tunnel with transfer based on the least square adjustment will be processed in the lines and SPF (short-pulse facility), PANDA software package. -
Probing a Battery Electrolyte Drop with Ambient Pressure Photoelectron Spectroscopy
ARTICLE https://doi.org/10.1038/s41467-019-10803-y OPEN Probing a battery electrolyte drop with ambient pressure photoelectron spectroscopy Julia Maibach 1,2, Ida Källquist 3, Margit Andersson4, Samuli Urpelainen 4, Kristina Edström1, Håkan Rensmo3, Hans Siegbahn3 & Maria Hahlin 3 Operando ambient pressure photoelectron spectroscopy in realistic battery environments is a key development towards probing the functionality of the electrode/electrolyte interface in 1234567890():,; lithium-ion batteries that is not possible with conventional photoelectron spectroscopy. Here, we present the ambient pressure photoelectron spectroscopy characterization of a model electrolyte based on 1M bis(trifluoromethane)sulfonimide lithium salt in propylene carbonate. For the first time, we show ambient pressure photoelectron spectroscopy data of propylene carbonate in the liquid phase by using solvent vapor as the stabilizing environment. This enables us to separate effects from salt and solvent, and to characterize changes in elec- trolyte composition as a function of probing depth. While the bulk electrolyte meets the expected composition, clear accumulation of ionic species is found at the electrolyte surface. Our results show that it is possible to measure directly complex liquids such as battery electrolytes, which is an important accomplishment towards true operando studies. 1 Department of Chemistry – Ångström Laboratory, Uppsala University, Box 538, 751 21 Uppsala, Sweden. 2 Institute for Applied Materials (IAM), Karlsruhe Institute of Technology (KIT), Hermann-von-Helmholtz-Platz 1, 76344 Eggenstein-Leopoldshafen, Germany. 3 Department of Physics and Astronomy, Uppsala University, Box 516, 751 20 Uppsala, Sweden. 4 MAX IV laboratory, Box 118, 221 00 Lund, Sweden. Correspondence and requests for materials should be addressed to J.M. -
Accelerator and Detector Research and Development Program 2011 Principal Investigators' Meeting Program and Abstracts
Accelerator and Detector Research and Development Program 2011 Principal Investigators’ Meeting Program and Abstracts The Westin, Annapolis, MD, August 22-23, 2011 Office of Basic Energy Sciences Scientific User Facilities Division NOTE: The printed version of this abstract book is provided in black-and-white; the accompanying CD contains full color versions of all the abstracts. This document was produced under contract number DE-AC05-06OR23100 between the U.S. Department of Energy and Oak Ridge Associated Universities. ABOUT THE COVER Upper left is a 1497 MHz superconducting The initial demonstration of the Echo Enhanced Harmonic cavity which has been optimized for high Generation (EEHG) seeding technique was made with a average current light sources by providing large energy chirp on the beam to shift the EEHG signals high acceleration gradients, large apertures, relative to the High Gain Harmonic Generation (HGHG) low losses, and substantial higher order signals: PRL, 105: 114801 (2010). The top plot shows the mode (HOM) damping. The damping is measured radiation spectrum with just the laser at 1590-nm provided through three HOM waveguides on modulating the beam while the middle plot shows the each end of the cavity with an axial rotation spectrum with the 790-nm laser modulating the beam. The to provide coupling to all bunching measured in both these cases is due to the HGHG modes. Fundamental power can be fed to process. The bottom plot shows the result with both lasers the cavity through one or more of the same modulating the beam. The additional EEHG signals can be waveguides. seen (E1, E2, and E3). -
State of Medicon Valley 2018
A COMPARISON OF SCIENTIFIC PUBLICATIONS IN 10 EUROPEAN LIFE SCIENCE CLUSTERS STOCKHOLM-UPPSALA SCOTLAND MEDICON VALLEY NETHERLANDS LONDON-CAMBRIDGE-OXFORD FLANDERS ÎLE DE FRANCE BIOVALLEY MUNICH ZURICH STATE OF MEDICON VALLEY 2018 An Analysis of Life Science in Greater Copenhagen PREFACE Medicon Valley is in a period of transition. The life science sector has been the region’s growth motor, even through the darkest years of the economic crisis. But now is no time to rest on laurels. The sector is facing new research breakthroughs in everything from personalised medicine to biopharmaceuticals and gene therapy. The dividing lines to other sectors are being dissolved with new digital solutions and arti- ficial intelligence that in part facilitate diagnostics and in part give patients increased control over their care. One of the most important foundations for the creation of a competitive life science cluster is the access to – and the emergence of – internationally leading university environments and research institutions. For this reason, we have commissioned a unique comparison of Europe’s ten most influential life science clusters, based on scientific publication volume in the life sciences, from the Dutch research institute CWTS at Leiden University. We’re happy to report that the percentual increase in scientific publications in the life sciences is greater in Medicon Valley than in any other cluster in Europe’s other Top Ten. Calculated according to the number of publications, the region’s placement is firmly in the middle of the list, at the top of which is the life science cluster in Lon- STATE OF MEDICON VALLEY 2018 don-Cambridge-Oxford. -
(UE) 2021/562 DE LA COMISIÓN De 30 De Marzo De 2021
7.4.2021 ES Diar io Ofi cial de la Unión Europea L 119/3 DECISIÓN DE EJECUCIÓN (UE) 2021/562 DE LA COMISIÓN de 30 de marzo de 2021 por la que se modifica el anexo de la Decisión de Ejecución (UE) 2020/1809, sobre algunas medidas de protección en relación con los brotes de gripe aviar de alta patogenicidad en determinados Estados miembros [notificada con el número C(2021) 2349] (Texto pertinente a efectos del EEE) LA COMISIÓN EUROPEA, Visto el Tratado de Funcionamiento de la Unión Europea, Vista la Directiva 89/662/CEE del Consejo, de 11 de diciembre de 1989, relativa a los controles veterinarios aplicables en los intercambios intracomunitarios con vistas a la realización del mercado interior (1), y en particular su artículo 9, apartado 4, Vista la Directiva 90/425/CEE del Consejo, de 26 de junio de 1990, relativa a los controles veterinarios aplicables en los intercambios dentro de la Unión de determinados animales vivos y productos con vistas a la realización del mercado interior (2), y en particular su artículo 10, apartado 4, Vista la Directiva 2005/94/CE del Consejo, de 20 de diciembre de 2005, relativa a medidas comunitarias de lucha contra la influenza aviar y por la que se deroga la Directiva 92/40/CEE (3), y en particular su artículo 63, apartado 4, Considerando lo siguiente: (1) La Decisión de Ejecución (UE) 2020/1809 de la Comisión (4) se adoptó a raíz de la aparición de brotes de gripe aviar de alta patogenicidad (GAAP) en explotaciones de aves de corral u otras aves cautivas de determinados Estados miembros y de que dichos Estados miembros establecieran zonas de protección y de vigilancia de conformidad con la Directiva 2005/94/CE del Consejo. -
Vacuum Systems and Resources at MAX IV Laboratory
MAX IV R&D Accelerator division seminars Vacuum systems and resources at MAX IV laboratory 18th September 2018, MAX IV, Lund Vacuum systems and resources at MAX IV laboratory, 18th September 2018 1 Marek Grabski Contents • What is vacuum - why do we need it in particle accelerators? • Basics of vacuum technology, • Gas sources, • Pumping technology, • Outlook of MAX IV storage ring vacuum systems, • Introduce vacuum team and services. Vacuum systems and resources at MAX IV laboratory, 18th September 2018 2 Marek Grabski What is vacuum? Vacuum is a space with no matter inside – practically not possible to achieve. Vacuum in engineering and physics is a space in which the pressure is lower than atmospheric pressure and is measured by its absolute pressure. Low pressure High pressure (high vacuum) (low vacuum) Force [N] 2 Pressure is Area [m2] measured in Pascals, 1 [Pa] = 1 N/m Vacuum systems and resources at MAX IV laboratory, 18th September 2018 3 Marek Grabski What is vacuum? The force exerted on the walls of an evacuated vessel surrounded by atmospheric pressure is: 1 kg/cm2 Atmospheric pressure Vacuum Vacuum systems and resources at MAX IV laboratory, 18th September 2018 4 Marek Grabski Pressure units Conversion table: units of pressure In vacuum technology: mbar or Pa Vacuum systems and resources at MAX IV laboratory, 18th September 2018 5 Marek Grabski Vacuum ranges 1 Atm. = 1013 mbar =~ 1 bar Pressure range [mbar] Low Vacuum 103 - 1 Medium Vacuum 1 - 10-3 High Vacuum (HV) 10-3 - 10-9 Ultra High Vacuum (UHV) 10-9 - 10-12 Extreme -
Annual Report of MAX IV Laboratory to the Swedish Research Council
Dnr: STYR 2017/384 Annual Report of MAX IV Laboratory to the Swedish Research Council 2016 Contents 1 Introduction ................................................................................................................ 3 2 Organisational matters ............................................................................................... 3 3 User operation ............................................................................................................ 4 3.1 Scientific Output ................................................................................................. 5 4 Accelerators at MAX IV Laboratory ............................................................................ 5 5 Communication and Outreach .................................................................................... 7 6 Engagement with Industry .......................................................................................... 8 7 Financial report with comments ................................................................................. 9 8 International and national collaborations ................................................................ 10 Appendix International agreements and collaborations entered 2016 ........................... 11 Annual Report of MAX IV Laboratory to the Swedish Research Council 2 1 Introduction 2016 has for MAX IV Laboratory been a year out of the ordinary in the sense that we have not had regular user operation. Since MAX-lab at Ole Römers väg was closed down 13 December 2015, focus has -
Science Parks in Medicon Valley 2018
SCIENCE PARKS IN MEDICON VALLEY 2018 An Analysis of Life Science- oriented Science Parks in Greater Copenhagen PREFACE University research in the Danish-Swedish Greater Copenhagen region needs to generate more new companies, and large-scale companies need a hand breathing new life into their innovation endeavours. Those are two of the goals behind recent years’ investments in the region’s science parks, incubators and accelerators. In many cases, the new investments target the life sciences and the region’s cluster, Medicon Valley. The new flagship is called the BioInnovation Institute, BII, and it started up earlier this year at COBIS in central Copen- hagen. BII has a budget of 392 million DKK, dispersed over three years, and is funded by the Novo Nordisk Foundation. The initiative has its origins in a sombre verdict: too few new companies have emerged from the life science research being done at the universities. Continued investments in the region’s science parks are crucial if Medicon Valley is to hold its own against life science clusters all over the globe. The most successful clusters are the ones that attract the best researchers and the most important investors. Medicon Valley Alliance’s new analysis focuses on the powerful developments in the regi- on’s science parks. This report profiles five science parks in Medicon Valley that are either fully or significantly focused on the life sciences: COBIS, DTU Science Park, Ideon, Medeon and Medicon Village. The overview also includes the start-up ecosystem Symbion in Copen- hagen and the food- and health-oriented science park Krinova in Kristianstad. -
Download White Paper
8 important considerations when relocating your life science business Surround your company with a knowledge-based environment Join a successful life science cluster Easy access PART OF 1 Provide your business with the best conditions for growth by becoming part of one of the world’s leading life science clusters Did you know that Denmark is a leader in the field of life science, and that the This white paper Medicon Valley business cluster in Greater Copenhagen is the international This white paper will provide you epicentre of Scandinavian life sciences? with information about the life science industry in the Municipality Here we have a vibrant ecosystem of Ballerup – a part of Greater and a deep talent pool underpinned by Copenhagen. You will find world-class life science universities and 8 important factors when research infrastructure. considering whether to relocate to Ballerup, and why our life science cluster is the ideal location for you. Success creates more success – the story of our region Our region is successful because the life science businesses here are successful. The life science industry in Greater Copenhagen grows stronger every day, because it both benefits from, and contributes to a unique ecosystem comprising businesses, universities and the public sector. The success of others gives you the best possible conditions for creating your own growth and thoroughly succeeding as a life science region. And your business is most welcome. You too can be a part of our success – and growth. 2 Surround your company with knowledge-based