Intelligent Building Asset Management
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INSAFE GOOD PRACTICE GUIDE Survey of Resources for Teenagers Full Report
INSAFE GOOD PRACTICE GUIDE Survey of resources for teenagers Full report Compiled: May 2012 Published: November 2012 About Insafe Insafe is the European Safer Internet awareness-raising network co-funded by the European Commission. It comprises national awareness centres, helplines and youth panels across the European Union and in Iceland, Norway and Russia. Insafe aims at empowering users to benefit from the positive aspects of internet whilst avoiding the potential risks. Further information is available at www.saferinternet.org or contact [email protected] . About this report In November 2011, we published an overview of how the Insafe network supports the needs of very young users, i.e. those aged nine years and under. This report provides an analysis of information recently provided by Insafe Safer Internet Centres (SICs) concerning the needs of teenagers, i.e. those aged 13 to 18. Survey of resources for teenagers by Insafe May 2012 1 TABLE OF CONTENTS INTRODUCTION ............................................................................................................................ 3 CHALLENGES ............................................................................................................................... 4 DEVELOPING AND TESTING RESOURCES ........................................................................................ 6 DELIVERING RESOURCES ............................................................................................................. 7 MEASURING EFFECTIVENESS ....................................................................................................... -
Contract No. IST 2005-034891 Hydra
Contract No. IST 2005-034891 Hydra Networked embedded system middleware for heterogeneous physical devices in a distributed architecture D3.1 Existing applications, services, devices and standards Integrated Project SO 2.5.3 Embedded systems Project start date: 1st July 2006 Duration: 48 months Published by the Hydra Consortium 2007-02-20 - version 1.0 Lead Contractor: CNet Svenska AB Project co-funded by the European Commission within the Sixth Framework Programme (2002 -2006) Dissemination Level: Confidential Hydra D3.1 Existing applications, services, devices and standards Document file: D3.1_v10.doc Work package: WP3 – Architecture Design Specification Task: T3.1 - Analysis of existing applications, services, devices and standards: Gather, analyse and harmonise existing devices, services, standards, systems and applications. Document owner: CNet Svenska AB Document history: Version Author(s) Date Changes made 0.2 Matts Ahlsén, Peter 10-10- Initial structure defined Rosengren 2006 0.3 Matts Ahlsén, Peter 04-11- Updates before WP3 kick-off Rosengren 2006 meeting 0.5 Matts Ahlsén, Peter 20-12- Chapter on KNX and other Rosengren. Peeter Kool, 2006 standards added. Appendix on Pablo Antolin Rafael intelligent homes added. 0.7 Matts Ahlsén, Peter 21-12- Chapter on devices in agriculture Rosengren. Peeter Kool, 2006 added Pablo Antolin Rafael, Klaus Marius Hansen 0.9 Matts Ahlsén, Peter 18-01- Conclusions added Rosengren. Peeter Kool, 2007 Pablo Antolin Rafael, Klaus Marius Hansen 0.95 Matts Ahlsén, Peter 19-01- Peer-reviewed by FIT. Documented Rosengren. Peeter Kool, 2007 updated. Pablo Antolin Rafael, Klaus Marius Hansen 0.99 Matts Ahlsén, Peter 20-02- Peer-reviewed by FIT (second Rosengren. -
Wireless & Self-Powered Internet of Things
Wireless & self-powered Internet of Things The Dolphin products are based on miniaturized energy converters, ultra-low power electronics and robust radio technology in open standards like EnOcean, zigbee and Bluetooth Low Energy for OEM product manufacturers. Building automation Smart home LED lighting M2M Our technology The Dolphin modules and white label products use the energy harvesting principle, in which energy is obtained from the surroundings, to supply self-powered wireless sensor networks. The modules are based on miniaturized energy converters that convert motion, light or temperature differences into electrical energy. Together with an efficient energy management system, the energy harvesting technology facilitates communication between maintenance-free IoT devices based on open wireless standards, such as EnOcean, zigbee and Bluetooth Low Energy. The solutions are used in building automation, smart homes, LED lighting control systems as well as industrial applications. Energy harvesting Wireless Ultra-low power The Dolphin portfolio for OEM product manufacturers The Dolphin portfolio includes the product lines “868 MHz EnOcean” for Europe, “902 MHz EnOcean” for North America and “928 MHz EnOcean” in Japan based on the EnOcean wireless standard introduced by the EnOcean Alliance (ISO/IEC 14543-3-1X) on the sub 1 GHz band, which has proven to be a resounding success in building automation and smart homes. The Dolphin porftolio also includes the “2.4 GHz zigbee” product line in the 2.4 GHz band, which can be used in smart home applications all over the world, and the “2.4 GHz BLE” portfolio for Bluetooth systems for modern lighting control. Energy converter Energy harvesting Energy harvesting Controlers Tools wireless switches wireless sensors Products in 868 MHz EnOcean for Europe Products with 868 MHz are suitable for Europe and other countries adopting RED. -
Lonworks® Platform Revision 2
Introduction to the LonWorks® Platform revision 2 ® 078-0183-01B Echelon, LON, LonWorks, LonMark, NodeBuilder, , LonTalk, Neuron, 3120, 3150, LNS, i.LON, , ShortStack, LonMaker, the Echelon logo, and are trademarks of Echelon Corporation registered in the United States and other countries. LonSupport, , , OpenLDV, Pyxos, LonScanner, LonBridge, and Thinking Inside the Box are trademarks of Echelon Corporation. Other trademarks belong to their respective holders. Neuron Chips, Smart Transceivers, and other OEM Products were not designed for use in equipment or systems which involve danger to human health or safety or a risk of property damage and Echelon assumes no responsibility or liability for use of the Neuron Chips in such applications. Parts manufactured by vendors other than Echelon and referenced in this document have been described for illustrative purposes only, and may not have been tested by Echelon. It is the responsibility of the customer to determine the suitability of these parts for each application. ECHELON MAKES AND YOU RECEIVE NO WARRANTIES OR CONDITIONS, EXPRESS, IMPLIED, STATUTORY OR IN ANY COMMUNICATION WITH YOU, AND ECHELON SPECIFICALLY DISCLAIMS ANY IMPLIED WARRANTY OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE. No part of this publication may be reproduced, stored in a retrieval system, or transmitted, in any form or by any means, electronic, mechanical, photocopying, recording, or otherwise, without the prior written permission of Echelon Corporation. Printed in the United States of America. Copyright -
Zach-2010-Monitoring for Simulation Validation-182.Pdf
MONITORING FOR SIMULATION VALIDATION Robert Zach and Ardeshir Mahdavi Department of Building Physics and Building Ecology, Vienna University of Technology, Austria building data streams are not exploited. Such benefits ABSTRACT include: One of the key problems in building simulation is to i) Energy optimization through improved determine the accuracy of a simulation model. Due to management of technical building systems. the complexity of a building, a comprehensive and exhaustive mathematical proof is usually not ii) Increased awareness of building users possible. Therefore, an appropriate way to validate a regarding their impact on buildings’ energy building model is to compare simulation results with use. measurements obtained from real buildings. Such iii) Early detection (and treatment) of comparisons not only allow for the validation of deficiencies and malfunctions in energy simulation models used in the context of building systems and devices, thus effectively design support, but also provide calibrated simulation supporting a preventive maintenance models to be applied in the context of real-time regime. simulation-assisted building systems control. iv) Successive building performance INTRODUCTION improvement and optimization via the analyses of dynamically updated building This paper deals with the monitoring infrastructure energy and performance data bases. necessary to validate building simulation models and implement simulation-based control strategies v) Long-term accumulation of empirical (Mahdavi et al. 2009, Orehounig et al. 2010). information on buildings' energy and Required sensors are discussed and technologies for environmental performance toward different domains are compared and assessed. improving the design, construction, and Possible network infrastructures to collect the operation of existing and new buildings. measured data are discussed. -
Network & Wireless
NETWORK & WIRELESS HUMIDITY & WIRELESS Kele Has Doubled the Offering of Network and Wireless Solutions, NETWORK and Continues to Add to Our Options to Meet Your Needs. Babel Buster | p. 719 L-VIS Series | p. 721 BASRT-B | p. 727 Series 110A | p. 733 ValuPoint VP4-23 | p. 744 EKI Series | p. 738 Series NETWORK & WIRELESS Products manufactured MODEL/SERIES PAGE in the United States Network Display and Control Panels Wireless EnOcean and ZigBee Devices L-VIS Series — BACnet and LON Touch Panel . 721 and Systems (cont.) Products that are BBC-SD — BACnet Graphic Display . 724 E3T-SxE Series — EnOcean Wireless European new to the catalog WebOP Series — Touchscreen Operator Display Light Switches . 826 Panel . 725 E3T-S2H Series — EnOcean Wireless Handheld Remote . 827 Network Gateways EasySens Thanos — EnOcean Room Operating ETH-1000 — Provides connectivity between Ethernet Panel . .. 830 and RS-485 based networks . 713 EasySens Receiver Gateways — EnOcean Receiver XLTR-1000 — Provides Connectivity Between Two Gateways . 831 Rs-485 Based Networks . 714 EasySens SRC Receiver Controllers — EnOcean Raptor Protocol Converter — RLE Technologies Receiver Controllers . 832 Protocol Coverter . 715 EasySens Repeater — EnOcean Wireless LGATE-9xx Series — Lonworks/Bacnet And Repeater . 833 Universal Gateways . 717 EasySens Switches — EnOcean Lighting, Blinds Babel Buster Series — BACnet - Modbus - SNMP and Shutters Switches . 834 Gateways . 719 EasySens Specialty Wireless Transmitters — AddMe® Series — BACnet - Modbus Network I/O . 743 EnOcean Remote Control, Key Card Switch, Window/Door Contact . 835 Network I/O Modules EasySens Room Sensors — EnOcean Temperature, Humidity and CO2 Sensors . 836 L-IOB Series — BACnet and LON I/O Module . 739 EasySens Temperature Sensors — EnOcean i.CanDoIt Series — Embedded Network Servers 742 Surface, Duct, Remote and Outdoor AddMe® Series — BACnet - Modbus Network I/O . -
Wireless Lighting Control System
Wireless Lighting Control System Patient Rooms and Healthcare Introducing PathWave — an EnOcean-based wireless lighting control system that lets you remotely power on/off or dim any* of Pathway Lighting’s fixtures that use 0-10V dimming. PathWave Advanced Features and Benefits: Two-way Wireless Communication A fixture-based relay communicates wirelessly with an occupancy sensor, one or more rocker switches, or both. The relay receives dimming control commands, which it then translates into 0-10V analog dimming signals for the LED driver. Benefit Wirelessly controls virtually any fixture that uses 0-10V dimming LED driver, without the added labor and material costs associated with additional wiring. Self-powered Rocker Switch Low-profile single or double rocker switch provides wireless control, and requires no electricity or battery power, to remotely power on/off or dim lighting in any space. Benefit No additional power required means reduced operating costs and a more environmentally friendly solution. Wireless technology enables mounting or storing the switch wherever convenient. Easy On-site System Set Up Associate one or more rocker switches to a single fixture or a group of fixtures, establish fixture groupings, or set up system parameters, using a PC and an optional USB programming dongle with the PathWave Software Application. Benefit System set up is easy and takes minutes to complete. It is future-proof – should changes in the way the space is used in the future require new fixture groupings, or new switches need to be added, the system can be reprogrammed at any time – all without the need for fixture rewiring, running additional wires or disrupting occupancy. -
X2rail-1 Deliverable D7.1 Analysis of Existing Lines and Economic Models
X2Rail-1 Project Title: Start-up activities for Advanced Signalling and Automation Systems Starting date: 01/09/2016 Duration in months: 36 Call (part) identifier: H2020-S2RJU-CFM-2015-01-1 Grant agreement no: 730640 Deliverable D7.1 Analysis of existing lines and economic models Due date of deliverable Month 09 Actual submission date 18-02-2019 Organization name of lead contractor for this deliverable 18-TTS Dissemination level PU Revision DB-001-02-R2 Deliverable template version: 02 (09/11/16) X2Rail-1 Deliverable D7.1 Analysis of existing lines and economic models Authors Author(s) Alstom Transport S.A. (ALS) Pierre Damien Jourdain AZD Praha SRO (AZD) Michal Pavel Lukas Michalik BOMBARDIER TRANSPORTATION SWEDEN AB (BTSE) Jorgen Mattisson INDRA (INDRA) Francisco Parrilla Thales Transportation Systems GMBH (TTS) Ana Millán Belen Losada Trafikverket – TRV (TRV) Jan Bystrom Contributor(s) ANSALDO STS S.p.A. (ASTS) Giovanni Canepa CAF Signalling S.L. (CAF) Ignacio Gonzalez Deutsche Bahn AG (DB) Julian Mohr MERMEC SPA (MERMEC) Vito Caliandro Siemens (SIE) Jose Manuel Mellado GA 730640 Page 2 of 165 X2Rail-1 Deliverable D7.1 Analysis of existing lines and economic models 1. Executive Summary The present document constitutes the first issue of Deliverable D7.1 “Analysis of existing lines and economic models” in the framework of the Project titled “Start-up activities for Advanced Signalling and Automation Systems” (Project Acronym: X2Rail-1; Grant Agreement No 730640). Although modern signalling systems are going to considerably reduce trackside equipment in the next years, a source of the innovation step proposed by the X2Rail-1 WP7 is to provide fully distributed control of remote trackside objects such as points, level crossings, etc., without requiring the necessity to install specialized trackside cabling and associated cable routes, ducting etc. -
Guidelines for Parents and Educators on Child Online Protection ${Field
ITUPublications International Telecommunication Union Development Sector Guidelines for parents and educators on Child Online Protection 2020 Guidelines for parents and educators on Child Online Protection 2020 Acknowledgements These guidelines have been developed by the International Telecommunication Union (ITU) and a working group of contributing authors from leading institutions active in the sector of information and communication technologies (ICT) as well as in child (online) protection issues and included the following organisations: ECPAT International, the Global Kids Online network, the International Disability Alliance, the International Telecommunications Union (ITU), the London School of Economics and Political Science, Internet matters, Parent Zone International and the UK Safer Internet Centres/SWGfL. The working group was chaired by Karl Hopwood (Insafe network of Safer Internet Centres (Insafe))1 and coordinated by Fanny Rotino (ITU). Invaluable contributions were also received by COFACE-Families Europe, the Australian eSafety Commissioner, the European Commission, the European Council, the e-Worldwide Group (e-WWG), ICMEC, Youth and Media/Berkman Klein Center for Internet and Society at Harvard University as well as individual national governments and private sector stakeholders that share a common objective of making the Internet a better and safer place for children and young people. These guidelines would not have been possible without the time, enthusiasm and dedication of the contributing authors. ITU is grateful -
Implementation of LED Control System Based on Zigbee Network for Energy-Saving
International Conference on Computer, Electrical and Communication Engineering (ICCECE'2015) June 18-19, 2015 Pattaya (Thailand) Implementation of LED control system based on Zigbee network for energy-saving Sang Woo Jung1, Jun Yeong Lee2, Seung Hyeop Yang3, Seung Hyun Paik4, and Hong Bae Park5 device does the same operation at the same time so unnecessary Abstract—In this paper, we study human body detecting using lighting devises are still turned on [6]-[8]. PIR sensor and design LED control system based on star network In this paper, a new LED control system which consists of topology of Zigbee. The human body detecting information using PIR human body detecting using PIR sensor, LED lighting, Zigbee sensor is transmitted to the status monitoring system, and the network, and power control system is proposed. The LED management system controls the LED lighting devices based on control system separates the lighting area, and the separated transmitted information. The information and control signals are lighting devises are interconnected by Zigbee network. The transmitted using Zigbee network. The structure of the proposed LED control system is suitable for energy-saving because the LED lighting LED control board cooperates with the nearby others, and the devices are controlled by area. operation is determined through their communication. So the LED lighting devices are controlled by area and are determined Keywords—human body detecting, PIR sensor, LED control whether to be turned on or not. system, Zigbee network, energy-saving The organization of this paper is as follows. In section 2, we describe a component of the LED control system, a flowchart I. -
Outdoor Lighting Control System Fundamentals
OUTDOOR LIGHTING CONTROL SYSTEM FUNDAMENTALS 9:00am Sunday 5/3/2015 Mark Wilbur, GE Lighting Solutions Michael Poplawski, Pacific Northwest National Laboratory ATTENDEE SURVEY: BACKGROUND 3 Manufacturer Municipal user Utility user Contractor, Consultant Market Analyst Investment, Finance Other ATTENDEE SURVEY: BACKGROUND 4 Manufacturer experience User experience Lighting control system Installed system Lighting control sub-system Pilot project Lighting control component Demonstration project Luminaire Mock-up Other Technical review None ATTENDEE SURVEY: EXPECTATIONS 5 General education Features and options of commercially available products Value propositions Barriers to adoption Planning a project Specific questions Market analysis WHO IS THIS COURSE DESIGNED FOR? 6 • Specifiers, owners, and operators of outdoor lighting systems • System integrators, start-up and commissioning agents • Manufacturers of non-lighting equipment that could get integrated into networked outdoor lighting systems A (NETWORKED) OUTDOOR LIGHTING CONTROL SYSTEM 7 NETWORKED CONTROL SYSTEMS 8 • Network (from IES TM-23-11): A group of systems that function cooperatively and/or interdependently to provide a chain of command for lighting control • Field Device Network: typically a Local Area Network (LAN) that connects and enables communication between (exclusively) Field Devices • Backhaul Network: typically a Wide Area Network (WAN) that connects and facilitates communication between (at a minimum) one or more Field Device networks with a -
Child Safety Online Global Challenges and Strategies
Child Safety Online Front cover photo: © UNICEF/NYHQ2010-3011/Pirozzi Global challenges and strategies THE UNICEF OFFICE OF RESEARCH, INNOCENTI The Innocenti Research Centre (IRC) was established in Florence, Italy in 1988 to strengthen the research capability of the United Nations Children’s Fund (UNICEF) and to support its advocacy for children worldwide . The Centre helps to identify and research current and future areas of UNICEF’s work . Its prime objectives are to improve international understanding of issues relating to children’s rights and to help facilitate full implementation of the Convention on the Rights of the Child in developing, middle-income and industrialized countries . IRC is the dedicated research hub of the UNICEF Office of Research (OOR), which provides global leadership for the organization’s strategic research agenda around children . The Office aims to set out a comprehensive framework for research and knowledge within the organization, in support of its global programmes and policies . Through strengthening research partnerships with leading academic institutions and development networks in both the North and South, the Office seeks to leverage additional resources and influence in support of efforts towards policy reform in favour of children . IRC’s publications are contributions to a global debate on children and child rights issues and include a wide range of opinions . For that reason, the Centre may produce publications that do not necessarily reflect UNICEF policies or approaches on some topics . The views expressed are those of the authors and/or editors and are published by the Centre in order to stimulate further dialogue on child rights .