You are currently browsing the archives for the Home automation network (HAN) category.
| M | T | W | T | F | S | S |
|---|---|---|---|---|---|---|
| « Mar | ||||||
| 1 | 2 | 3 | 4 | 5 | 6 | |
| 7 | 8 | 9 | 10 | 11 | 12 | 13 |
| 14 | 15 | 16 | 17 | 18 | 19 | 20 |
| 21 | 22 | 23 | 24 | 25 | 26 | 27 |
| 28 | 29 | 30 | 31 | |||
- 1000 BASE-T (3)
- 1000BASE-LX (1)
- 1000BASE-SX (1)
- 100BASE-FX (2)
- 100BASE-SX (1)
- 100BASE-TX (3)
- 10BASE-FL (1)
- 10BASE-T (2)
- 10GBASE-EW (1)
- 10GBASE-LR (1)
- 10GBASE-LRM (1)
- 10GBASE-LW (1)
- 10GBASE-LX4 (1)
- 10GBASE-SR (1)
- 10GBASE-SW (1)
- 10GbE (1)
- 3D (2)
- 802.3af-2003 (1)
- Acoustics (1)
- Administration of drugs (1)
- Advance Carparking Systems (APS) (1)
- Advance parking meters (1)
- Advanced metering infrastructure (AMI) (5)
- Advertising (3)
- Air Conditioning (2)
- Air Insulated Metering Unit - AMU (1)
- Airport (2)
- AMRs (5)
- anaesthetic gas scavenging systems (AGSS) (1)
- Android (1)
- ANSI/CEA 709.1 (1)
- ANSI/ISA wireless standard (1)
- Apple (3)
- application bandwidth (1)
- Applications Domain (1)
- Arcnet (2)
- Asbestos (1)
- ASHRAE (2)
- ASHRAE 135-1995 (1)
- aspirating fire detection system (1)
- ATEX (1)
- Authorised Electricity Operator (AEO) (2)
- Automated Home initiative (TAHI) (1)
- Automatic monitoring and targeting (aM&T) (4)
- Automatic vehicle location (AVL) (1)
- automation wireless systems (1)
- AV displays (1)
- Aviation (2)
- BACnet (5)
- BACnet ARCNET (1)
- BACnet Ethernet (1)
- BACnet MS/TP (1)
- BACnet PTP (1)
- Balancing and Settlement Code (BSC) (1)
- Battery technology (2)
- batteryless switches (1)
- BEAMA (1)
- Bed status (1)
- bedhead services (1)
- BERR (2)
- Best practice (1)
- Billing And OSS Domain (1)
- BIM (building information modelling) (1)
- Biofuels (1)
- Biomass (4)
- Biometrics (3)
- Black Start (1)
- Blogs (1)
- Blu-ray video (4)
- Bluetooth (3)
- BNC (1)
- Braille (1)
- BRE (1)
- BREEAM (1)
- BREEAM Gulf (1)
- British Gas (2)
- British Standards (BSs) (1)
- Broadband internet (2)
- BS5839 (1)
- BUilding Control Bodies (BCBs) (1)
- Building Energy Efficiency Programme (BEEP) (1)
- Building Management System (BMS) (1)
- Building Management System Integrators (BMSi) (1)
- Building Performance Institute (1)
- Building regulations (3)
- Building Research Establishment (BRE) (1)
- Building services (1)
- building-automation systems (BAS) (1)
- Buildings (13)
- Business Intelligence and collaboration platform (1)
- Cameras - real time images (2)
- Canadian Standards Association (1)
- Car Park System (3)
- car technology (1)
- Carbon Capture and Storage (CCS) (3)
- Carbon Reduction Commitment (CRC) (3)
- Castell switching (6)
- Cat3 (1)
- Cat4 (1)
- cat5 (2)
- Cat5E (5)
- Cat6 (12)
- Cat6A (2)
- CCTV IR-illumination (1)
- CCTV Systems (1)
- CDMA devices (1)
- CEDIA (1)
- Changeable Message Signs (CMS) (1)
- Chief Fire Officers Association (1)
- CHP (1)
- Chrome (1)
- Chrome OS (2)
- Cisco (4)
- clean coal technology (CCT) (1)
- clean earth (1)
- Climate change (1)
- Climate Change Agreements (CCAs) (1)
- Climate Change Levy Exemption Certificate (LEC) (1)
- Climate control networks (1)
- Clinical report displays (1)
- Clinton Climate Initiative (CCI) (1)
- Close Proximity Signage (CPS) (1)
- Closed Circuit Television (CCTV) (5)
- Cloud Computing (1)
- Coarse Wavelength Division Multiplexing (CWDM) (1)
- Code for sustainable homes (1)
- Color Kinetics (1)
- colour rendering index (Ra) (1)
- commercial off-the-shelf (COTS) (1)
- Connection Agreement (1)
- Connection Charges (1)
- Connection Point (1)
- Construction (2)
- Construction workload (13)
- Consumers (1)
- contactless infrastructure (1)
- content encryption/decryption (1)
- Content management system (1)
- Content protection (1)
- Contestable Works (1)
- Control of Pollution (Oil Storage) (1)
- controls (1)
- converged IP core network (2)
- CoP1 (1)
- CoP10 (2)
- CoP2 (1)
- CoP3 (1)
- CoP5 (3)
- CUSC Bilateral Agreement (1)
- Customer (1)
- Customer Relationship Management [CRM] (1)
- customer satisfication (1)
- DAB (1)
- daily appointments (1)
- DALI (1)
- Dangerous Substances and Explosive Atmospheres Regulati (1)
- Dark Fiber (1)
- Dasboard (1)
- data carrying techniques (1)
- Data Centers (3)
- Data Centre Design (3)
- data centres (2)
- Data Protection Act (2)
- David Slade (4)
- Davmark (3)
- DeafBlind Communicator (DBC) (1)
- DECC (1)
- Department of Energy and Climate Change (2)
- Department of Health (1)
- design life cycle (1)
- desktop (1)
- Detailed Planning Data (DPD) (1)
- DH Estates and Facilities (1)
- Diesel (1)
- diesel or petroleum (1)
- Digital Radio (1)
- digital rights management (DRM) (1)
- digital signage (1)
- Digital Video Recorders (DVRs) (1)
- Digital Transition TV (2)
- direct digital control (DDC) (1)
- Display Energy Certificate (DEC) (1)
- Display Energy Certificates (DEC Certificates) (1)
- Displays (1)
- Distribution System (4)
- DLNA (Digital Network Living Alliance) (1)
- DMX (1)
- DNO (9)
- door-access systems (1)
- Double Skinned Tank (1)
- DTV (1)
- Duke Energy (1)
- duty of care (1)
- DVD (1)
- EA TS 133 (1)
- EA TS 41-24 (1)
- Earthing (1)
- Echelon (2)
- Eco-fund tariffs (1)
- ecommerce (1)
- EDC (Electronic Dispersion Compensation) (1)
- Edge-QAM subsystem (1)
- Education (4)
- EIKON (1)
- Electrical Equipment (Safety) Regulations (1)
- Electrical Equipment (Safety) Regulations 1994 (1)
- electrical supply (3)
- Electromagnetic compatibility (1)
- electronic article systems (EAS) (1)
- Electronic networks (1)
- electronic patient record (EPR) (2)
- embedded generator (2)
- EMC (1)
- Emissions Trading Scheme (1)
- Emissions Trading Scheme (ETS) (1)
- end-to-end (E2E) (1)
- Energy (10)
- energy controller (1)
- Energy efficiency commitment (EEC) (1)
- Energy harvesting (1)
- Energy Performance Certificates (EPC) (1)
- Energy Services Directive (1)
- ENERGY STAR (1)
- Energy Star program (1)
- Energywatch (1)
- Engineering (13)
- EnOcean Alliance (1)
- Eon (1)
- equal level far end crosstalk (ELFEXT) (1)
- equipotential earth (1)
- ERP (enterprise resource planning) (1)
- ESD flooring (1)
- ESTA (1)
- etailing (1)
- Ethernet (PoE) (1)
- EU Council (1)
- Eurocodes (1)
- European Emissions Trading System (EU-ETS) (1)
- European Smart Metering Industry Group (ESMIG) (1)
- European Union (1)
- Event (1)
- Export Meter (1)
- Export tariffs (1)
- Extended Environments Markup Language (EEML) (1)
- face geometry (1)
- Facilities strategy (1)
- facility management (1)
- fault level (1)
- fibre optic cabling (1)
- Fibre optic line drivers (1)
- Fibre Optic Standards (1)
- FibreAlert (1)
- Fingerprints (1)
- Fire alarm system - False Alarms (1)
- Fire detection (2)
- Fire performance test (1)
- Fire protection (2)
- Fire safety (4)
- Fire Safety Order 2005 (2)
- Fire Suppression (1)
- Firefox (1)
- fireman's lift (1)
- FITs - Feed-In Tariff (2)
- flexible screen (1)
- Footfall - people counting (1)
- Fuel oil (1)
- Furniture and Furnishings (Fire) (Safety) Regulations (1)
- G.hn (1)
- G54 (1)
- G59 (3)
- G74 (1)
- G75 (2)
- G83 (2)
- Galileo (1)
- Gas (3)
- gas distribution Network (2)
- gas distribution networks (GDNs) (1)
- Gas meters (4)
- Gas Safety (Installation and Use) Regulations 1998 (1)
- Gas smart metering (1)
- Gas suppliers (1)
- Gas Transporters (IGTs) (1)
- gateway (1)
- General (8)
- General Electric (1)
- Generation tariffs (1)
- Generator (4)
- Generator Star point Earthing (1)
- Genlyte group (1)
- Gigabit Interface Connector (GBIC) (1)
- Global Intelligent Utility Network (IUN) Coalition (1)
- Global Navigation Satellite System (GNSS) (1)
- global positioning system (GPS) (1)
- Global System for Mobile Communications (GSM) (1)
- Google (8)
- GPRS (1)
- Greater London Authority (1)
- Green buildings (7)
- Green Digital Charter (1)
- Ground source heat pumps (1)
- GUI (1)
- H&S (1)
- hand geometry (1)
- Hand scanners (1)
- Harmonics (1)
- hazardous explosive atmospheres (1)
- HDMI (4)
- HDTV (1)
- Head-end and head-end subsystems (1)
- health monitor systems (2)
- Healthcare (11)
- heating and ventilation control (1)
- High voltage distribution (1)
- Hochiki (1)
- Home Automation (8)
- Home automation network (HAN) (13)
- Home Energy Controller (HEC) (1)
- Home Entertainment Network (1)
- Home Information Packs (HIPs) (1)
- Home Office (1)
- Home Star (1)
- HomePlug Alliance (1)
- HomePNA (1)
- HomNet (3)
- hospital information system (HIS) (1)
- Host Bus Adapter (HBA) (1)
- Hotel Solutions (1)
- House in Multiple Occupation (HMO) (1)
- Housing (10)
- Housing Act 2004 (1)
- Housing Health and Safety Rating System (HHSRS) (1)
- HTML (HyperText Markup Language) (1)
- Human Rights Act (1)
- HV switchgear isolation (1)
- Hydroelectricity (1)
- IBM (5)
- ICT (1)
- IEC 555-2 (1)
- IEC61850 Ethernet-based services (1)
- IEEE 1473-L (1)
- IEEE 1621 (1)
- IEEE 802.15.4 (1)
- IEEE802.3 (1)
- IEEE802.3ae (1)
- IEEE802.3ak (1)
- IIT (19)
- in-home display (IHD) (1)
- Independent Distribution Network Operator (IDNO) (3)
- Information Commissioner (1)
- information-technology (IT) (3)
- Innovation (1)
- Integrated Access Device (IAD) (1)
- Integrated Metering System (2)
- Integration (16)
- Intel (1)
- Intelligent building (13)
- Intelligent Car Park System (2)
- Intelligent network (2)
- Intelligent transport systems (ITS) (1)
- internet fridge (2)
- internet oven (1)
- Internet video-on-demand service (2)
- internet washing machine (1)
- Internet-based television technology (2)
- intertripping (1)
- Intranet platform (1)
- Introduction (4)
- IP (Internet Protocol) (2)
- IP packet (1)
- IP Ratings (Ingress Protection) (1)
- IP video (1)
- IP-surveillance (1)
- IP/MPLS layer (1)
- iPhone (1)
- iPhone Apps (2)
- IPTV (3)
- IPv6 (1)
- iris patterns (1)
- ISA-100.11a (1)
- Island mode (1)
- islanding (1)
- ISO-16484-5 (1)
- IT (3)
- IT - Streaming (1)
- IT Network (power over Ethernet) (2)
- IT Tech explained (8)
- ITU-T G.9954 (1)
- Key Performance indicators (1)
- KNX EIB (1)
- LAN (1)
- LCD display (1)
- leak detection (1)
- LED Lighting (4)
- LEED (2)
- LG (1)
- LG Group (2)
- licensed premises (1)
- life cycle cost analysis (LCCA) (1)
- lifecycle (1)
- Lifetime freedom homes (4)
- Lifetime homes (2)
- Lighting (4)
- Lighting - Street (2)
- Lighting control (4)
- Lighting pollution (1)
- Linkedin (2)
- LinkLoss (1)
- Local authority powers (1)
- LonTalk (1)
- Lonworks (9)
- Loss Prevention Research Council (1)
- loudspeakers (1)
- Low Carbon Buildings Programme (1)
- Lumileds (1)
- m-commerce (1)
- Mac OS X (1)
- Marketing (6)
- Meal selection (1)
- Media Access Control (MAC) (1)
- Media Converter (1)
- Medical Devices Directives (1)
- Medical gas pipeline system (MGPS) (1)
- Medication requirements (1)
- MEIGaN - Medical Electrical Installation (2)
- metadata (1)
- Metal Core PCB (MCPCB) (1)
- Meter Operator (MOP) (1)
- metering (26)
- metering - Remote display (2)
- metropolitan area network (MAN) (1)
- MHRA (1)
- Micro CHP (2)
- micro-generation (2)
- microgeneration (1)
- Microgeneration Certification Scheme (MCS) (2)
- Microsoft (1)
- microwave (1)
- mission-critical (1)
- mobile phone (1)
- Modbus (1)
- Modbus/TCP (1)
- Motorola (1)
- Mozilla (1)
- MPAN (3)
- MPO cables (1)
- MPRN (Gas Meter Point Reference Number (2)
- MRI (1)
- Multi-Source Agreements (MSAs) (1)
- multi-touch application (1)
- Multilevel Discipline (1)
- Multiple earths (1)
- Multiple Terminations Push-Pull Latch (1)
- multiroom audio video (MRAV) (1)
- music (2)
- NAT (Network Address Translation) (1)
- NDO's (3)
- near end crosstalk (NEXT) (1)
- Near Field Communication (1)
- Network Infrastructure Domain (1)
- Network Integrator (1)
- Network Interface Cards (NIC) (1)
- Network Switch Cooling Solution (1)
- Networked Energy Services (NES) System (3)
- Nintendo (1)
- Node controller (1)
- Non Half Hourly (NHH) (1)
- Non-Contestable Works (1)
- Nonlinear loads (1)
- nurse-call (2)
- ODBC connections (1)
- Ofcom (2)
- Office of Government Commerce (OGC) (1)
- Ofgem (7)
- OLED (1)
- OLEDS (1)
- online shopping (1)
- Open Data Centre Alliance (1)
- OpenRF (1)
- operations support systems (OSS) (1)
- Optical Media Converters (1)
- Organic Recycling (1)
- Outdoor Spaces (1)
- oven (1)
- Oxy reduction system (1)
- P2/5 (1)
- P2/6 security (1)
- P28 (1)
- P29 (1)
- Pachube (1)
- Paknet (radio system) (1)
- Panasonic (1)
- parallel operation (1)
- Parking Guidance and Information (PGI) systems (1)
- Patient details (1)
- Patient entertainment (1)
- Patient monitoring (1)
- Patient's calling devices (1)
- PCI bus (1)
- Permit Scheme Operators (1)
- Philips (1)
- phosphorescent organic light-emitting diode (PHOLED) (1)
- Photovoltaic (PV) (5)
- Photovoltaics (3)
- PlayStation (1)
- point of common coupling (PCC) (1)
- point-of-sale (POS) (1)
- Power Distribution Units (PDUs) (1)
- Power line Carrier (PLC) (1)
- power outage (1)
- Power over Ethernet (PoE) (1)
- powerline (1)
- Project management (1)
- Proprietary Tank Systems (1)
- protection relays (1)
- protective earth (PE) (1)
- protective earth and neutral (PEN) (1)
- Public buildings (1)
- quality of service (QoS) (1)
- racks (1)
- Radio Frequency Identification (RFID) (1)
- radio frequency interference (RFI) (1)
- radiology information system (RIS) (1)
- Raised Floor Systems (1)
- Raised Floors (2)
- Rare earth minerals (1)
- real estate management (2)
- real-time (1)
- Real-time Location System (RTLS) (1)
- Realtime SMS (1)
- Reform (Fire Safety) Order 2005 (1)
- Regulatory Reform (Fire Safety) Order (2)
- Regulatory Reform (Fire Safety) Order 2005 (1)
- Remote access servers (RASs) (1)
- Remote Control (1)
- Remote Patient Monitoring (1)
- Remote Phosphor Technology (RPT) (1)
- Renewable energy (18)
- Renewable Energy Certificate (REC) (2)
- Renewable Energy Guarantee of Origin (REGO) (4)
- Renewable Obligation Certificates (ROC) (4)
- Renewable power (12)
- Renewable tariffs (6)
- residential (1)
- residential gateway (RG) (1)
- resiliency (1)
- Retail Price Index (RPI) (1)
- Retail solutions (2)
- Retrofit for Energy and Environmental Performance (REEP (1)
- Ring Main Unit - RMU's (1)
- RJ45 (1)
- RoHS (1)
- ROI (1)
- Royal and Sun Alliance (RSA) Insurance Group (1)
- RS-485 (1)
- S34 (1)
- Sales (1)
- Samsung (2)
- SCADA applications (1)
- Scotia Gas Networks (1)
- SEAIIT (1)
- section 20 building (2)
- Section 20 buildings (1)
- SecureMesh (1)
- security (3)
- Security networks (1)
- SERDES (1)
- Service Life Plan (1)
- Set Price Tariffs (1)
- set-top box (STB) (1)
- SharePoint (1)
- shielded twisted pair cable (STP) (1)
- Siemens (1)
- Signage (1)
- Small Form Factor Pluggable (SFP) (1)
- Small Scale Embedded Generator (SSEG) (3)
- Smart Buildings (2)
- Smart gas meters (2)
- Smart Grid Maturity Model (3)
- Smart Grid Technology (15)
- Smart homes (12)
- smart meters (22)
- Smart water meters (1)
- smoke extraction (1)
- SMS (2)
- Software (1)
- Solar PV (4)
- solution integration (SI) (2)
- Sony (1)
- Sound (1)
- Speech recognition (1)
- sprinkler (1)
- Sprinklers (1)
- Staff communications base (1)
- Staff-to-staff (emergency) (1)
- Standard Network Variable Type - SNVT (1)
- structural design (1)
- Subscriber Domain (1)
- substation automation (1)
- Substations (1)
- Sun Microsystems (1)
- Suspended Ceilings (1)
- Sustainability (7)
- Sustainable and Secure Buildings Act (1)
- SwitchAir (1)
- switchgear (2)
- System Frequency (1)
- System intergration (7)
- T1 or E1 communication lines (1)
- TDM-based protocols (1)
- Telecommunication Standardisation Bureau ITU (1)
- telecommunications (1)
- Telecommunications Industry Association (TIA) (1)
- thermostat (1)
- Thicknet (1)
- ThinNet (1)
- third harmonics (1)
- Third sector (1)
- Tidal renewable energy (1)
- Time Division Multiple Access (TDMA) (1)
- Time Synchronized Mesh Protocol (TSMP) (1)
- TiVo (2)
- TN-C (1)
- toilets (1)
- Total Generation Meter (1)
- touchless controls (1)
- Touchscreen (1)
- Touchscreen technology (2)
- Traffic Management Act (1)
- Transformer protection (1)
- Transformers - Dry (1)
- Transformers - Liquid filled (2)
- Transport and access networks (1)
- Tripping (1)
- Twitter (4)
- U.S. Environmental Protection Agency (1)
- un-lit fiber (1)
- Uncategorized (9)
- Uninterrupted Power Supply (UPS) (1)
- Universal Integrated Card (UICC) (1)
- Universal Powerline Bus (UPB) (1)
- UPnP (Universal Plug and Play) (1)
- UPS (1)
- USB (1)
- variable message signs (VMS) (1)
- venting system (1)
- video game consoles (1)
- Video on demand (VOD) (1)
- Video services middleware platform (1)
- video-on-demand (1)
- Virgin Media (2)
- virtualized network (1)
- Vodafone (1)
- Voice-Activated Controls (2)
- VoIP (3)
- Voltage Rise / Step Change (1)
- VPN (1)
- Wake On LAN (1)
- WAN (wide area network) (2)
- WAN PHY (1)
- washing machine (1)
- Water meter (2)
- water mist system (1)
- Wave (1)
- Wavelength Division Multiplexing (WDM) (1)
- Weatherproof LCD TV (1)
- Web 2.0 (3)
- Web-accessible control system (WACS) (2)
- Wi-Fi (6)
- wide area network (WAN) (1)
- Wii (1)
- Wind energy (8)
- Windows 8 (1)
- wireless communications (2)
- Wireless Gigabit (WiGig) Alliance (2)
- Wireless HD (1)
- Wireless sensor networks (WSNs) (2)
- Wireless USB (1)
- Wood-based Bio Fuels (1)
- X2 (1)
- Xbox (1)
- XENPAK (1)
- XFP (1)
- XML (extensible markup language) (2)
- xoserve (1)
- XPAK (1)
- Yardi (1)
- YouTube (1)
- Z-Wave (3)
- Zhaga LED standard (1)
- ZigBee (14)
- zone controllers (1)
- 30/03/2012: Asbestos Regulations - UK
- 10/11/2011: Distributed Smart data centres - working sun set to sun rise!
- 21/06/2011: Microsoft's next-gen OS - Windows 8
- 21/06/2011: Google - Chrome
- 21/06/2011: Mozilla - Firefox 5
- 13/01/2011: Samsung to invest in IBM chip research for mobile, other devices
- 04/01/2011: Online shoppers don't like "dynamic" pricing, report says
- 04/01/2011: 3D Blu-ray discs enter new year with some catching up to do
- 03/01/2011: China cuts rare earth exports
- 23/12/2010: SEAIIT Unleashed
Archive for the Home automation network (HAN) Category
ZigBee Smart Energy Certified Products
07/04/2010 by David Slade.
As the industry leader, only ZigBee offers an established, competitive marketplace providing the core technology for monitoring, controlling, and automating the delivery and use of energy and water. ZigBee Smart Energy is the affordable and easy way to improve energy efficiency and reduce environmental impact.
The following ZigBee Smart Energy Certified Products were tested to ensure they meet all of the Alliance’s strict specifications and perform as promised. These products represent solutions across the entire efficiency ecosystem – energy services portals, meters, displays, thermostats and load controllers. Each product may wear the ZigBee Certified logo and the green ZigBee Smart Energy icon so that they may be easily identified in the marketplace.
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||
Posted in metering - Remote display, AMRs, wireless communications, HomNet, thermostat, energy controller, SecureMesh, in-home display (IHD), Home Energy Controller (HEC), Web-accessible control system (WACS), smart meters, Advanced metering infrastructure (AMI), ZigBee, Home automation network (HAN), Automatic monitoring and targeting (aM&T), Smart homes, Home Automation, Smart Grid Technology, Wireless sensor networks (WSNs), metering | 2 Comments »
More evidence of the coming collision between home broadband and the smart grid
20/11/2009 by David Slade.
One trend that will pick up steam in 2010 is technologies and alliances that bring the current home broadband infrastructure (Home Automation network) and the emerging smart grid infrastructure closer together. After all, as more homes embrace high-speed Internet access (wired OR wireless), it makes sense that smart meters and other smart grid devices communicate via what is already in place.
Anticipating this convergence of interests, iControl Networks has come out with a platform called ConnectedLife Energy Management. The technology, which is intended for broadband operators, utility companies and other service providers, will allow for the development of demand response systems and other energy-efficiency services. The company expects Connected Life Energy Management to be commercially available to consumers sometime in 2010. It would allow for applications such as scheduled energy usage that is tailored to meet certain efficiency or carbon footprint goals.
Here are some of the consumer-level applications that will be possible:
- Real-time energy usage monitoring
- Remoted management of thermostats from an Internet browse, iPhone or other mobile phones
- Automation applications that, for example, would let you set up thermostat configurations for your air-conditioning or heating systems
- Ability to manage your account against certain cost parameters
Posted in Smart Grid Technology, Home automation network (HAN) | No Comments »
How to Approach IPTV Solution Integration - A Framework Based on Lessons Learned
25/06/2009 by David Slade.
End-to-end solution integration (E2E SI) is essential when creating a business plan for IPTV service offerings. Rather than taking a piecemeal or partial approach to integration—which often results in unacceptable end-user quality of experience — operators need a comprehensive method that addresses all aspects of the IPTV implementation. The approach discussed in this white paper is derived from experience gained from actual IPTV implementations over a number of years.
Introduction
IPTV technology is now mainstream. Many service providers have already launched or are in the process of launching consumer IP video services in an attempt to maintain or gain market share in a fast moving, end-user focused competitive arena. Their initial approach has been to offer service bundles of voice, video and data (triple play). These same service providers are contemplating providing their customers with blended VoIP, video and data services (rather than bundling traditional voice), as well as with quadruple play, which includes mobile services. Some typical current strategic, tactical and operational IPTV-related service provider issues include:
- Media aggregation, management, and distribution solutions
- Content negotiation
- Existing network and network component capabilities
- Broadcast and multicast delivery capabilities
- Capacity to perform realistic trials
- Enhancing and streamlining business operations
- Management and billing capabilities
- Quality of experience (e.g., spectrum utilization index design, interactivity, and User Interface (UI) responsiveness)
- Quality of service (e.g., video/audio stability, scalability, and redundancy)
- Home networking components, deployment and maintenance
- Differentiated applications integration
- Personalization of existing applications
- Security and digital rights management
- Understanding the impact of offering video services on the organization
The challenge of integrating new technologies, features and services into the service provider’s network is complex and demanding. The transformation process usually involves maintaining existing services while developing and migrating to the new service environment. To cope with this level of complexity, many service providers turn to a partner they can trust to help them transform not only their network and services, but also their business operations. This usually includes a combination of professional consulting and integration/deployment services.
Experienced solutions integration (SI) partners have developed the capabilities to address the real issues that service providers face when implementing IPTV or triple play. The SI either takes on turnkey end-to-end projects as the prime integrator and trusted advisor, or it can provide consulting advice in targeted areas such as:
- Network integration
- Performance
- Security
- OSS/BSS integration, and/or operations analysis
- Rapid integration of new revenue generating, enhanced applications
The SI partner should have specialized lab environments that allow it to pre-integrate end-to end solutions with its own best-in-class partners. The labs are also used to develop the stringent processes required to carry out realistic proof of concept, trial, and commercial deployments for the service provider.
This paper describes how to perform IPTV solution integration, blending end-to-end IPTV component technical knowledge with a strong business-focused approach to create closely integrated work packages that are strung together via a “golden thread” that ties together all deployment lifecycle phases for maximum efficiency and consistency, making IPTV deployments and enhancements predictable, reliable and successful. The golden thread is a proven formula and methodology based upon many years of lessons learned in the field.
Components of an IPTV Solution
The key components of an IPTV solution that are typically deployed as part of a video services solution include:
Head-end and head-end subsystems – Includes broadcast service components with relevant redundancy and management capabilities. These components include all the equipment needed for content ingestion, encoding, encapsulation, and encryption, as well as DVB data extraction components.
Edge-QAM subsystem – For cable operator deployments, the SI partner must have the expertise to perform supplier management and integrate the selected edge-QAM hardware within the end-to-end solution.
Content management system – Enables the content providers and the operator to self-manage the full content lifecycle from offline encoding, via ingestion and metadata management, pricing, packaging, bundling, marketing campaigns, through distribution and storage management. The CMS solution is a collection of integrated components covering the required lifecycle functionality of all content types.
Content protection: conditional access /digital rights management (DRM) – A suite of integrated components covering all aspects of content encryption/decryption. Tight integration between all solution components and the CA/DRM vendor components is required.
Video on demand (VOD) server and back-office systems – Video (or streaming) servers are responsible for pushing the content over IP via standardized protocols. Integration of the streaming servers with the head-end, CA, middleware and content management is required. Video services middleware platform – Central IPTV component carrying all the business logic of the IPTV service and responsible for interfacing and managing all solution components and players – e.g., underlying network, head-end, CA, video servers, back-office legacy systems (e.g., OSS, BSS, Customer Relationship Management [CRM]), Content Management Systems (CMS), Integrated Access Device (IAD), set-top box (STB), and end user.
Transport and access networks – the characteristics and capabilities of which bear heavily on service levels delivered to end users. The network is an integrated part of the overall end-to-end video solution and should be considered as such throughout the entire process of strategic planning, design and deployment.
Customer premises equipment: residential gateway (RG)/IAD and STB – The RG/IAD enables the operator to perform end-user provisioning and home device management. The STB is the main component the end-user interfaces with. The STB typically interfaces with the middleware either via a native client or web browser.
An experienced SI should be able to perform vendor evaluation for all solution components selection, including proof of concept, interoperability tests, benchmarking, and “shootouts.” Once the solution component is selected, the SI directly interfaces with and manages the supplier on behalf of the operator.
A Business-Focused Project Approach
A business-focused approach implies that the SI must be aligned to the service provider’s deployment journey from the initial services concept through commercial launch and beyond. Figure 1 below shows the typical phases an operator undertakes when launching a video services solution.
Click here to enlarge Figure 1

Moving through these phases provides the operator with maximum confidence in the service’s readiness in terms of stability and functionality. This approach also minimizes risks while receiving user feedback prior to commercial launch.
The schematic indicates several phases of market scanning along with one or two “friendly user” trials. Following commercial launch there are usually growth and solution extensions and enhancement phases. Eventually, a product enters a “steady state” period. At this stage, the solution is not frequently enhanced or extended, user growth is predictable, and at some point a decision is usually made to reinvent or retire the product. Due to the emerging nature of the IP video business and the ubiquity of IP, many of the current commercial IP video offerings are more likely to be enhanced into new products rather than retained in their current state.
Because service providers are historically very experienced in product introduction, an internal methodology usually exists – albeit focused on a different type of end-user product. Every provider has a different focus, experience, requirements, and way of working, which results in a well understood internal methodology. Usually this methodology is a set of traditional processes that the organization adopts when deploying new services that fit the organization’s structure, behavior and culture.
These processes and procedures – down to the smallest details – have become an integral part of the organization and constitute a methodology that the organization’s team members are accustomed to working with. The SI must take this internally developed methodology into account when assisting in an IPTV deployment.
Application of a Project Methodology
Experienced solution integrators have developed a project lifecycle methodology to guide their integration services. They also have created methodologies specific to individual solutions such as IPTV. The more experience the integrator has, the more its methodology will be end-to-end focused and complete. Superior methodologies, which can take years to build, should be flexible enough to align with the service provider’s internal processes and existing methodologies as highlighted above.
At a high level, professional solution integrator methodologies include five focus areas/phases that are executed in a cyclic fashion. These are:
- Consult
- Design
- Integrate &Validate
- Deploy
- Maintain and operate
Simply adopting the integrator’s generic methodology may not be the optimum way to achieve the desired project results. The integrator should work with the service provider in order to understand the organization, culture and current methodology being applied to new service introductions. This allows the integrator and provider to collaborate on creating the optimal methodology for introducing video services – a methodology that best fits the service provider’s organizational structure and culture. In addition, it will thoroughly cover relevant video service solution areas, ensuring that all high-level criteria required for such a deployment are met.
Translating the Methodology to a Timeline
This resulting methodology has to be translated into a meaningful timeline. First, activity subjects are defined for each high-level step (i.e., consult, design, integrate, deploy, maintain and operate). Once defined, each activity subject (or “workstream”) is broken down into “boxed set” of activities called “work packages,” or, more formally, “professional services solution integration modules.”
The work packages are defined to meet specific customer business and technical needs. They also take into account the organization’s operational structure and include an estimated effort in time and resources. Adding all work packages and workstream timelines provides the overall project duration.
The figure below shows typical solution integration project subjects (workstreams) that fall into the high-level steps described above. When drawn in a linear fashion, the timeline provides an initial idea of the entire project’s duration and scope.
Click here to enlarge Figure 2

The work packages building the work streams are addressed as independent but correlated sub-projects. Each work package has its own scope of work duration, and associated resources for execution.
An experienced SI’s portfolio for IPTV should be constructed on a set of carefully selected field-proven work packages. Furthermore, the design of each work package should allow execution individually or in conjunction with others, depending on actual project requirements.
The Secret Behind Professional SI Framework Execution
A typical IPTV solution integration project involves many work packages. These work packages not only function as stand-alone modules, but also must be able to integrate with all other work packages. The ability to deal with the complexity required to bring all the work packages together as an E2E solution is the key characteristic of a successful, professional SI. As indicated in Figure 3, each work package may consist of dozens of subtasks and activities, and is usually handled as a project on its own with a dedicated project manager and team. However, the golden thread methodology applied by professional sis ensures that the single work package is closely linked to all other work packages associated with the project.
Click here to enlarge Figure 3

As indicated in Figure 4, each work package goes through a series of high-level methodology steps to ensure that all required information is available, that nothing is hidden from the team and that work package activities truly reflect all aspects of the project.
Click here to enlarge Figure 4

In a typical service provider project, work packages move through the consult, design, integrate, deploy and maintain cycles. When mapping the work packages to the five-step high-level methodology, the SI may find that some work package subtasks are already in process or partially complete. It is the job of the integrator to identify where each work package is in the five-step process, to verify that the steps already completed actually meet the required criteria, and to continue the process for the work packages as defined.
Fast Facts About Work Packages
In order to assist definition and project planning, work packages should;
- Be clearly distinguishable from all other work packages in the project
- Have a scheduled start and finish date
- Be the responsibility of a team leader
- Have specific resources assigned from the integrator, service provider and third parties
- Be scoped from design to delivery
- Be completely documented in the project book
- Be flexible enough to adapt to service provider’s internal needs and allow tight cooperation between service provider, solution integrator, and other third parties
- Be designed to work in tandem with other work packages as required to achieve the desired project outcomes
- Have the ability to run standalone, allowing a specific offer (statement of work) to be produced for each work package
A Word on Program Management
For complex end-to-end IPTV solution integration projects, strong focus on program management is one of the keys to ensuring the fluidity and interaction between work packages, as well as overall program tracking and communication. It is advisable to have highly experienced program and solution managers as solution implementation integration and deployment leads.
The solution manager role typically involves making sure that all input is gathered, performing an overall status analysis, and consolidating the issues and risks associated with all project teams, including third parties. Specifically for third-party management, the solution manager should have access to all relevant information on the technical and operational aspects of the suppliers solutions.
The solution manager initially manages the project organization setup and resource assignment involving the SI, service provider, and third-party organizations as mentioned above. Subsequently, the manager actively steers the project organization; this encompasses all work-package leaders and teams involved. In order to do this, the manager should be closely aligned with peers in the service provider’s organization, as defined at the start of the project.
Multilevel Discipline
A multilevel project management discipline is recommended to ensure deployment success. This typically involves a program management office structure that is responsible for taking the project from service description through commercial deployment. The project organization should include key service provider personnel who will steer and manage the project.
A time-tested approach, depicted in Figure 5, is to create three project levels: project steering committee, project management and project operational. For smaller projects, only the project management and operational levels are required.
Click here to enlarge Figure 5

Project Steering Committee Level
This level includes representatives of the sponsor and enabler of the project. They articulate the project’s business-related goals and provide the project management level with the authority to manage the project as the leading team. The representatives meet at intervals determined by the business’s size and relevance of the project – typically once per quarter or, for very large projects, on a monthly basis.
Because the steering committee is comprised of executives from the involved parties in the project, it is the highest level of escalation in case of disputes. This approach also ensures executive participation in risk assessment, investment alternatives and project roadblock management.
Project Management Level
The project management team usually consists of program managers, sales managers, contract administrators, financial controllers and technical project managers responsible for field operations and third parties. Depending on project’s overall scope of work – i.e., the number of work packages and their contents — this team can be extended by adding personnel associated with specific functions. These specialized team members can work either full or part-time depending on project requirements and planning.
The project management team, led by a global project manager, acts in a matrix function on top of the standard line organization. This project manager is also responsible for actively managing the project work packages.
Project Operations Level
Project operations are under direct control of the project management level and usually consist of teams gathered from the service provider, SI, and third parties. Depending on the project phase, the operational level teams usually consist of tender, operational, and installation and commissioning staff, as well as business consultants, legal specialists, and engineering staff. Also included are staff with other technological competencies needed by the project management team to achieve specific project objectives. The project operations teams are responsible for delivering project-specific, predetermined deliverables by executing the statement of work defined for their assigned work package.
Conclusion
For a complex implementation such as IPTV, the negative consequences of deployment errors and implementation shortcuts underscore the need for a well-designed project delivery methodology aligned with the service provider’s business goals. Lessons learned based on global implementations have led experienced solution integrators to develop an IPTV solution integration approach that is flexible and also mitigates the most common risks and pitfalls that service providers are likely to encounter.
Most effective is a business-focused approach that breaks down typical project methodologies into specific work packages. These work packages are carefully developed and aligned to the service provider organization and capabilities. They are then executed under strict control from a multi-tier program management organization. Assigning specialists with specific expertise to each work package, and supporting the entire effort with resources such as in house lab facilities, provides both the solution integrator and service provider with a high level of confidence that they will achieve a successful IPTV integration and implementation.
Posted in Customer Relationship Management [CRM], Video services middleware platform, Video on demand (VOD), Integrated Access Device (IAD), set-top box (STB), Multilevel Discipline, residential gateway (RG), Transport and access networks, digital rights management (DRM), content encryption/decryption, VoIP, solution integration (SI), IPTV, Head-end and head-end subsystems, Edge-QAM subsystem, Content protection, Content management system, Home automation network (HAN) | No Comments »
Energy Transformation Technologies
25/06/2009 by David Slade.
The energy utilities industry is very conservative. The combination of long asset life and the absolute priority on safety and reliability has meant that many of the technologies have not changed radically since the 1950s.
Now that is changing. Faced with the rapid shift in energy-consumption patterns, the move to green energy solutions and the evolution of communications technologies, utilities are reassessing their energy delivery strategies.
This article explores the pressures that this industry is facing. It takes a look at how two of the big technology changes — smart grids and smart metering — mandate the need for a cohesive communications strategy.
The Industry Pressures
There are four fundamental pressures on today’s utilities:
- The changing pattern of electricity consumption, driven by the extensive proliferation of air conditioning resulting in the peak period of electricity consumption moving to the heat of summer.
- The move toward green energy solutions, epitomized by the European Commission, which requires (among other things) 20% renewable energies in overall EU energy consumption by 2020.1 This is not uniquely European: politicians everywhere are pressuring utilities to accommodate environmental change.
- Consumers and regulators alike are demanding highly reliable energy delivery, vital in maintaining an efficient national economy.
- Financial stakeholders require better operational efficiency. Large-scale investment in new energy infrastructure is to be avoided where feasible. Given that the basic electricity infrastructure lacks the flexibility to track swiftly changing market pressures, utilities are examining two complementary approaches to increasing the efficiency of their networks:
- Intelligent networks
- Smart metering
Intelligent Networks
Intelligent networks (a term covering smart grids, substation automation and distribution automation) aim to improve the utilization of the network assets by monitoring and controlling them far more closely than previously possible. For example:
- Make the energy-carrying capacity of a network dynamic by measuring in real time climatic conditions such as instantaneous temperature or the cooling effect of the wind, thus enabling better network utilization.
- Today’s distribution networks have little real-time measurement or control. Intelligent technologies will provide a far more accurate picture of demand, energy flows and network incidents, yielding a major improvement in energy reliability and asset utilization.
- The modern techniques of “condition monitoring” — monitoring the network assets for telltale signs of performance degradation — allow a very accurate forecast of equipment failures to be built. This means that assets can be replaced on a just-in-time basis, delivering significant investment savings and increased energy reliability. The benefits of intelligent energy networks are huge. They extend the lifetime of the assets, optimize power flows, increase energy reliability and enable investment to be focused where it is most needed.
Smart Metering
Smart metering is primarily intended to make consumers more conscious of energy consumption, thus leading to reduced consumption during peak periods and an overall reduction in the production of greenhouse gases.
Informing the user is merely the first step: facilitating the desired action by consumers requires two other capabilities:
- The use of tariffs to encourage energy consciousness (whereby high instantaneous demand during periods of peak demand is charged a premium price)
- Direct control of major household appliances
Smart metering brings its own set of challenges. This is a new application using new technologies — the smart meters, the communications network to access millions of devices and the platform to manage them.
Communications as the Key Enabler
As stated above, the technologies used in the energy networks have not changed radically since the 1950s. Thus, communications networks have, in general, been built up over several decades using ad hoc, application-specific technologies, with little network sharing and, in many cases, with little management or control.
To deliver the benefits of intelligent networks and smart metering, a homogeneous, reliable, flexible communications infrastructure is essential. Today, it is feasible to create a single cohesive network that will support:
- Latency-critical applications such as teleprotection
- Existing modem-based SCADA applications
- Intelligent network and smart metering applications using modern communications protocols
- IEC61850 Ethernet-based services for future automation applications
- Other future applications, such as closed-circuit TV (CCTV) for physical security, which will expect the latest communications protocols to be supported This results in a typical infrastructure as shown in Figure 1.

In this architecture, the multi-service optical transport layer ensures the support of both mission-critical operations such as teleprotection services, with their very tight technical requirements, and existing applications using traditional TDM-based protocols. Simultaneously, it efficiently transports packet-based data for new services and applications on the same infrastructure.
The IP/MPLS layer supports new packet-based applications traffic, including substation automation, smart metering and security services with a virtualized network using Layer 2 and Layer 3 VPNs. Corporate voice, video and data applications can also be supported, with traffic management features ensuring that mission-critical operational traffic is given priority.
This network architecture delivers high reliability with secure support of mission-critical operations traffic. The associated end-to-end management capability makes this network easy to manage, allowing utilities to lower the skill barrier for staff.
It has allowed existing applications to be migrated and supported without disruption and has enabled systems operators to realize the consequent efficiency and reliability improvements.
For those starting down the road to energy network transformation, experience suggests a number of steps:
- By starting with the high-voltage substations, a modernized multi-service TDM and Ethernet transport footprint can be established that will support all utility services.
- Substation transformation to Ethernet services will be driven by asset life cycle management or new plant construction. New Intelligent Electrical Devices will simply plug in to the transport footprint established earlier.
- Distribution automation and smart metering should be considered as complementary activities (where the regulatory regime permits). In this way, an access network can be built that supports both these applications in a single, cohesive network. This requires that the complete future access requirements are considered at the outset of the project, otherwise utilities risk perpetuating application-specific, vertically integrated networks, thereby aggravating communications inefficiency.
Conclusion
Energy utilities are on the cusp of the first real technology change in network and metering technologies since the 1950s. This change is predicated on the requirement for a robust, reliable and flexible communications network that will support existing mission-critical applications as well as the evolution to modern smart grid and smart metering technologies.
Posted in substation automation, IP/MPLS layer, virtualized network, VPN, mission-critical, TDM-based protocols, SCADA applications, Smart Grid Technology, Home automation network (HAN), smart meters, IEC61850 Ethernet-based services, Intelligent network, Intelligent building | No Comments »
The Future: Smart networking, LonWorks, the IP network, and open source computing are going to drive a different world
24/06/2009 by David Slade.
At Apple co-founder Mike Markulla’s Venetian Hotel-styled private theater in this posh Palo Alto suburb, the chairman of Sun Microsystems, makers of Java, and CEO of Duke Energy, makers of 36,000 megawatts of electricity in coal and nuclear plants, shared the stage.
The CEOs found common ground pushing a vision of the future where light switches are superfluous and any device that uses power is networked, easily automated, and far more energy efficient. Holding up a standard Sun identification card, Sun Chairman of the Board Scott McNealy noted that it was faster than an Apple II computer.
“We can connect anything that is more than a dollar in value,” he said.
But McNealy’s declaration that he was “over” the network was the real highlight of the hour-long event to celebrate the twentieth anniversary of Markulla’s post-Apple endeavor, Echelon, which makes sensors and controls for all types of devices.
“I want my stuff to be on the network” said McNealy.
Coming from the CEO of a company that once had the tagline, “The network is the computer,” the comment drew laughs from the small crowd. McNealy admitted that his statement probably was “not the best marketing thing.”
Beyond his glib distaste for social networking, McNealy and Jim Rogers, Duke Energy’s CEO, presented a serious case that the future of networking lies with your toaster, lights and curtains. By turning “dumb” devices into nodes on a smart network, the businessmen said that the entire economy could be restructured to use energy more efficiently.
“I believe the most energy efficient economy is going to be the one that provides the greatest standard of living for its people,” Rogers said.
Rogers also noted that utilities would have to redefine their businesses away from commodity power and start making money by helping their customers control, not just use, their electricity.
“I see embedded in every customer six to eight networks and on each network there’s three to five applications,” he said. “What if I create value by optimizing those networks and those applications?”
That’s a major change in thinking for utilities that previously considered their job finished when the electricity hit your meter.
Though they painted grand visions of what the future could hold, both executives said there were many challenges to be met in creating the network of things.
“There’s a lot of work to be done,” McNealy said. “There’s a lot of work to take the complexity out of client devices and to take the cost out of client devices.”
Cost and complexity have slowed the adoption of home automation systems, but all three companies clearly see an opportunity to capitalize on the high cost of energy and increasing concern over carbon emissions.
McNealy even dropped Echelon’s protocol LonWorks into his solution for the future.
“LonWorks, the IP network, and open source computing are going to drive a different world where per capita energy usage can plummet as green becomes the new black”, he said “And I mean black in terms of making money.”
Rogers’ vision was equally amibitious and showed that the North Carolina-based CEO knew his big-thinking Silicon Valley audience.
“At the end of the day, what I’m gonna provide is universal access to energy efficiency the way we provided universal access to electricity in the last century.”
Images: Jim Merithew. Top: Scott McNealy speaks to the crowd. Middle: The crowd is bathed in green LED light during a demo of the room’s fancy lighting system. Bottom: Duke Energy CEO Jim Rogers lays out his plan for the future of a smarter electrical grid.
Posted in Echelon, Apple, Sun Microsystems, Duke Energy, Smart Grid Technology, Lonworks, Integration, Intelligent building, Home automation network (HAN), Green buildings | No Comments »
Twitter: Messaging service apps for home automation - Send a tweet to flip the switch by remote control
24/06/2009 by David Slade.
Thanks to its open-ended design and a thriving user community, Twitter is fast outgrowing its roots as a simple, easy-to-use messaging service. Enterprising hackers are creating apps for sharing music and videos, to help you quit smoking and lose weight — spontaneously extending the text-based service into one of the web’s most fertile (and least likely) application platforms.
Hardware hackers have set up household appliances to send status alerts over Twitter, like a washing machine that tweets when the spin cycle is through, or a home security system that tweets whenever it senses movement inside the house. Others have incorporated Twitter into their DIY home automation systems. Forgot to turn off the lights? Send a tweet to flip the switch by remote control.
“It’s so simple and easy to access, people are thinking of more and more uses for the platform,” says Dan Wasyluk, creator of the Twitter-based Snipt service. Wasyluk launched Snipt last week as a way to let programmers share short snippets of code over Twitter.
Launched in 2007, Twitter quickly became a darling of the life- and mind-casting interneterati. But some saw boundless possibilities in the 140-character limit, and what was a slow trickle of innovation is now quickly elevating what is essentially a micro-blogging service into one of the internet’s most important technologies, along with instant messaging and e-mail.
Though its main use — sending and receiving short messages to your social network — is often dismissed as time-wasting trivia, Twitter’s potential as a broad internet platform is just beginning to be fully realized. Twitter has grown into a ubiquitous presence — you can send tweets from your phone, your desktop and your browser — that has potential to not only facilitate communication among humans, but even to make machines do our bidding.
Businesses are starting to be built around it. Botanicalls, for example, sells a Twitter-enabled hardware kit that lets your neglected house plants alert you when they’re thirsty.
The company has developed a tiny moisture sensor attached to a circuit board with an Ethernet port. You stick it in your plant’s soil, and when the moisture levels drop below a certain level, your plant sends you a tweet begging to be watered.
Using Twitter’s application programming interface (API), a programmer with even a modest amount of experience can create a web app that gathers public data from Twitter, or uses it to send links, commands or bursts of information.
“[Twitter’s] open API is a huge reason it has grown into such a platform,” says Wasyluk.
File sharers were the first to rush in. The photo-sharing service TwitPic, one of the oldest Twitter mashups, lets users send pictures to their followers by storing a photo on its servers, then passing the link around on Twitter. Now there are newer apps like Tweetcube and Twittershare, which let users share larger media like MP3s and videos.
Twitter’s limited format of short, text-based announcements are a natural match for sites like TrackThis, which you can use to get status updates on FedEx and UPS packages, and Tweetajob, which job seekers can use to get real-time updates about new job openings.
Anyone who needs help quitting smoking can use Qwitter to monitor their progress. Those looking to lose weight can turn to TweetWhatYouEat or TweetYourEats.
Hardware hackers have put a new spin on the Twitter mashup — as it turns out, just about anything that can be plugged into the internet is capable of talking to Twitter.
Programmer Ryan Rose rigged up his washing machine to send him a tweet when his clothes are done. He just follows his machine’s twitter account (it’s PiMPY3WASH) and he knows when to go downstairs and move his undies to the dryer.
Linux hacker Shantanu Goel set up a video camera and some motion-sensing software on a PC connected to the internet. If anyone breaks into his house or goes snooping through his room, the software detects the movement and sends out a tweet.
Tech-savvy environmentalists can install Tweet-a-Watt, a gadget that plugs into your wall socket and connects to your wi-fi network. Once a day, the pocket-sized device broadcasts stats of your daily energy usage to Twitter.
Whether that sort of transparency results in embarrassment or bragging rights can be determined by a system like the one created by Justin Wickett. The Duke University student wired up his home so he could turn his lights on and off remotely, just by sending a text message to Twitter from his mobile phone.
Posted in Home automation network (HAN), Twitter | 1 Comment »
Home Tweet Home: Energy-Savvy House Broadcasts on Twitter
24/06/2009 by David Slade.
We’ve had the connected home available for sometime now. With home automation connected to the internet, and able to report and control devices on site and remotely from any internet enabled device (PC or cell/mobile device). But this the first report of a house connected to the social network; Twitter.
Read on……

Home improvement is gaining a new connected visual dimension.
One house twitters about its energy usage, another posts every item in its refrigerator and dozens more provide live data on how much electricity their solar panels are generating.
An increasing number of homeowners are installing monitors on their houses that broadcast information on the Internet about the physical environment in and around where the houses sit.
This revolution is being led by infotech guys like the Google engineer we wrote about, or the creator of the Twitter system, Andy Stanford-Clark, who works for IBM’s Pervasive and Advanced Messaging Technologies team. And as Katie Fehrenbacher noted over at Earth2Tech, the creators of Flash are now hard at work on an energy monitoring and automation system called Greenbox.
Posted in internet fridge, Home automation network (HAN), Twitter | 5 Comments »
Smart homes today
14/06/2009 by David Slade.
Broadband internet and digital TV are seen as the first steps towards smart, networked homes, as they have the potential to be gateways into homes for a wide range of smart applications. Their take up has been rapid; by March 2006, 43 per cent of UK homes had broadband internet connections compared to two years earlier when only 15 per cent did.6 The take up of digital television is driven by government policy to switch all TV to digital by 2012 and 77.2 per cent of British homes had digital TV in some form as reported at the end of 2006.
The technology industry sees smart homes as the next big thing and many companies have smart or digital home programmes. But analysts argue that consumers’ key concerns are still simple problems, like getting all the computers in a house to link to the same printer.
Other than the most technology literate or the very wealthy, consumers do not yet seem to be demanding the advantages of networked homes. Smart homes are therefore more likely to evolve as people purchase different features that link up to each other over time, rather than through an instant technological upgrade.
Even so, many companies and groups are already looking ahead to fully smart homes. The Automated Home initiative (TAHI) aims to “promote, provide the environment for and launch large scale deployments of ‘smart houses’ and the services…for them so that people can see and experience the benefits the connected home can bring and demand them for themselves.” Their working groups look at different aspects of smart homes and want to avoid features developing in isolation, as the ability of smart features to communicate and work together through a home network will be essential to their desirability. TAHI has been feeding in to the European level development of a smart homes specification, as well as developing a mark of interoperability.
A number of BEAMA members already produce smart home technology and the association has a smart homes working group. It sets out what a smart home is, what it can offer and the technologies available on a comprehensive website that promotes their members and provides developers and homeowners with information. Such initiatives will be increasingly important to the development of smart homes, as features start to become commonplace.
Smart homes around the world
The smart homes market in most developed countries is similar to that of the UK, with some key exceptions. South Korea is a clear leader in this area and looking at their achievements illustrates the real potential of smart homes.
Smart homes in South Korea
Following a financial crisis in the 1990s South Korea invested heavily in developing innovative technology. They have introduced the world to the internet fridge, oven and washing machine and are a laboratory for developing the home of the future.
This will help to solve their domestic challenge of dealing with a greying population, as well as providing them with massive export opportunities.
In 2007 the Ministry of Information and Communication will have invested approximately £247 million in supporting the development of original information technology (IT). Part of this will support home networking, which has already received loans to develop 44,000 networked homes. The ultimate aim is to network 10 million homes, with plans to introduce a home network building certification system.
South Korea’s investment in networking is such that they are increasingly looking beyond the smart home to the smart city. The networked home strategy is now part of a larger project to network entire cities, called U-city, which is being promoted by around £11.5 million worth of subsidies to local government bodies and the construction and housing sectors. Dongtan New Town, Korea’s first U-city, is being tested and rolled out from March 2007 and all 1,010 residential units are now networked.
Home networks in South Korea are provided by LG Electronics’ HomNet product or Samsung’s HomeVita. Lotte Castle apartment complex in Seoul is an example of fully networked homes. They have wireless broadband and a HomNet environment that is controlled via TV, a remote control or a keyboard. Cameras relay real time images from other areas of the home and the outdoor playground, DVDs can be copied onto the home’s hard drive, gas and electricity use is tracked, a health monitor checks blood pressure, body temperature and heart rate and there are on-screen controls for the washing machine, the microwave, the air conditioner and the oven.
The entire home can be controlled remotely by mobile phone and residents will be notified of any problems, such as the gas being left on, and can get real time images of their home over the phone.
Other networked homes have voice activated controls, refrigerators that can update residents on their contents and mirrors that display their daily appointments, as well as toilets that send health updates to their doctor.
The focus of smart homes in South Korea is to make life easier, rather than environmental benefits. But as the environmental performance of homes becomes increasingly important in Europe, a key export market, these aspects are likely to be developed and highlighted. The UK’s pursuit of smart homes will be nowhere near as single minded but it does demonstrate what is possible and provide scope for applying South Korean innovations to our environmental ambitions.
Smart homes in the UK
Smart homes in the UK can be found at extreme ends of the housing spectrum.
Wealthy homeowners looking for the latest technology to manage their homes have been installing smart networks and smart applications are also being put into social and sheltered housing because of their healthcare and energy efficiency benefits.
Retrofitting existing homes to make them smarter and to lower their environmental impact, is also now possible.
The mass housing market is between the extremes of high-end mansions and social housing. The average homebuyer is not demanding smart features and developers have no interest in a home’s performance once it is sold, so they have no driver to install energy saving smart features. The market for smart homes, building contractors generally considered that they would remain a rarity except in high-end properties and sceptical about the potential of smart retrofitting, believing it will remain a niche area.
In contrast to this pessimism, smart home contractors and manufacturers are very positive, regarding “the forward march of the intelligent home as almost inevitable.
Posted in daily appointments, DVD, Cameras - real time images, mobile phone, toilets, internet fridge, HomNet, internet washing machine, internet oven, oven, microwave, Air Conditioning, Digital Transition TV, Voice-Activated Controls, Smart homes, Broadband internet, Automated Home initiative (TAHI), washing machine, health monitor systems, BEAMA, Home automation network (HAN) | No Comments »
How to Use Your Home’s Wiring for Networking
11/06/2009 by David Slade.
Powerline adapters can help you bridge the gaps in your home network.
Until recently you had two options for setting up a computer network in your home - wired or wireless.
First on the scene was wired networking. The upside is clear and reliable connections between your computers and all the devices attached to your network - printers, external storage, etc. The downside: unsightly wires everywhere.
Then along came wireless technology. No more wiring clutter. All your networked devices could “talk” to each other throughout your home without stringing wires across the floor, over doorjambs and around corners. The use of the new “802.11n” technology with its ability to send wireless signals further and stronger makes the wireless option even more popular.
However, in some homes wireless networking literally runs into “walls.” Your home may have “dead spots” caused by such things as lathe and plaster, steel, aluminum or stone walls, alcoves or other building design elements that block wireless signals.
But, fear not, there is an easy fix to these situations. It is called “powerline networking.”
Networking companies like D-Link offer Powerline Ethernet (wired) Adapters, inexpensive devices (under $140 per pair) that take advantage of your home’s existing electrical wiring. You’ll need at least two to create a network, and more adapters can be added depending on the configuration of your home.
Simply plug them into your wall sockets to create or extend the digital network in a house or apartment. It turns every power outlet into a possible network connection where you can plug computers, digital media players, game consoles, network storage units and other devices in your home’s network.
Certain home appliances, like vacuum cleaners or hair dryers, can slow down your powerline connection, but the overall benefits far outweigh any performance loss and are well worth the cost. In fact, in addition to plug-and-play installation, D-Link’s powerline adapters can prioritize Internet traffic to allow larger data files like movies and video to flow through your network at greater speeds than word processing documents, for instance. They also have security and power-saving green features to boost your network’s effectiveness.
So go ahead. Plug in a powerline adapter on your patio, put your feet up on the chaise lounge and watch your favourite movie on your laptop.
Posted in IT Network (power over Ethernet), IT, Home automation network (HAN) | No Comments »
What’s the Difference between Z-Wave and ZigBee, and Should You Care?
11/06/2009 by David Slade.
Two wireless protocols fight for mindshare in the home control space, but how much should they matter to consumers?
When selecting a home control system, should you care if it’s compatible with Z-Wave or ZigBee?
It depends!
Both technologies enable two-way wireless control of various electronic devices including remote controls, dimmers and thermostats.
Both employ mesh networking, which means that the more devices that are on the network, the more powerful the network becomes.
ZigBee has a higher bandwidth, so it can accommodate richer information, such as metadata from your music library.
Z-Wave has the benefit of being a real “standard,” meaning Z-Wave products from one manufacturer are interoperable with those from other vendors (with a few exceptions).
ZigBee is trying to get there, but currently you cannot mix-and-max ZigBee products from multiple vendors.
Proponents from both camps claim they will own the market for “smart meters” and therefore will become the de facto standard. We’ll see.
Price-wise, the common perception is that Z-Wave is cheaper than ZigBee, but that really is not the case. It just so happens that most of the ZigBee implementers in the home-control space (AMX, Crestron, Colorado vNet, for example) serve higher-end markets.
Yet a ZigBee dimmer from Control4 can cost less than a Z-Wave dimmer from Leviton.
Bottom line is this: For do-it-yourselfers, Z-Wave is really the only option. You can’t just go out and buy ZigBee products.
For higher-performance systems, it doesn’t really matter. I wouldn’t use Z-Wave or ZigBee as a litmus test for choosing a home-control system. I’d go with the system that had the best features for my needs.
In any case, it’s tough to make a mistake on this one since a variety of adapter products exist.
Don’t Forget the Other Wireless systems - some thes are only available stateside
If you’re in the market for retrofit solutions, also consider Insteon from SmartLabs. Insteon-compatible products are available for both wireless (RF) and powerline control (powerline products communicate over the home’s existing electrical wiring.) Insteon products are inexpensive and reviews on the technology are generally positive.
Universal Powerline Bus (UPB) from Powerline Control Systems is arguably the best technology for powerline-based automation gear.
And HomePlug, the organization that brought us high-speed powerline networking, has a new automation protocol called Command and Control. Like the Z-Wave and ZigBee advocates, the HomePlug Alliance believes its protocol will be selected by utilities for their smart-energy initiatives.
Posted in smart meters, Universal Powerline Bus (UPB), HomePlug Alliance, music, metadata, ZigBee, Z-Wave, Home Automation, Home automation network (HAN) | No Comments »
10 Key Features in a Home Automation System
11/06/2009 by David Slade.
The ability to manage your home’s electronic systems from one main control system can make your household run smoother, feel better and save energy.
The trick is to find a system that will meet all the demands of your household, now and in the future. Most systems can be tailored by a custom electronics professional to provide all the benefits you desire, but there are some key features that will make his job easier and your interaction with your system more enjoyable.
In no order of importance, here’s our top 10 key features:-
1. Interoperability
The beauty of an automation system is its ability to tie diverse electronic devices together so they can perform as one unified system. Getting these devices to work cohesively can be simple or complex, depending on the “openness” of the automation system. The more open a system is, the easier it will be for the lights, thermostats, audio/video equipment, security devices, motorized shades and other electronics to communicate with each other. A good example of interoperability is having the lights turn off, the thermostats set back when you press a “goodbye” button on a keypad or when a motion sensor notices that you have exited a room.
To support interoperability between multiple electronic devices, manufacturers of home automation systems often form connectivity partnerships with other manufacturers. Automation products should be able to communicate seamlessly with a wide variety of other systems—from architectural lighting and irrigation, to multiroom audio.
Another way automation manufacturers are fostering interoperability is through adherence to technology standards. For example embedded Zigbee wireless control technology into automation products so those products can network easily with other Zigbee-enabled products.
The more connectivity of different devices that occurs between different partners and manufacturer components linking different communication standards has to be adopted, with more choices that need to be made. “It allows designers/installers to select the best suite products for their clients.”
2. Remote Access
Automation is all about being able to control things in your home, and part of that is being able to change the settings quickly and easily if your plans change. More often than not, plans change when you’re not at home, so being able to communicate those changes with your home automation system remotely is one of the most revered features of an automation system. Remote access capabilities allow you to monitor your home’s environment and alter the settings of the lights, thermostats and other gear if necessary all from your laptop, mobile phone or iTouch. David Slade of Davmark believes that remote monitoring facility should be incorporated as part of the core offering and be provide free of charge from any service caharge. “Why should you pay to access your automation system when you’re already paying for broadband access?” Proive a gateway to link uo to the outside world!
Remote access also allows your installer to tweak your system without having to make a house call, which is always cheaper and more convenient.
3. Expandability
The way you live in your home five years from now will probably be much different than the way you live in your home today. Moreover, technology will continue to evolve, introducing a completely new generation of products to the marketplace. In the future, you may also want to add new rooms—like a recently finished basement or an addition off the back—to your automation network. Or, you may simply want to start out with just a few features when you first put in your system then add new capabilities later as you have the money. For these reasons, it’s important that a home automation system can be easily expanded both vertically to incorporate additional products and horizontally to support additional rooms.
Manufacturers can support vertical and horizontal expandability by designing their systems to speak a common network language, like IP (Internet Protocol), and by offering wireless retrofittable products that can communicate with a home’s existing network of wired products.
4. Upgradeability
Those touchscreens and black boxes may look impressive, but it’s what you don’t see that holds the true power of an automation system. Software is the driving force of an automation system. The more sophisticated that software is, the more the system can do. As technology changes, so must the software. Before you buy any system, be sure the manufacturer (or your installer) will be able to unlock and download software updates automatically.
5. Variety of Interfaces
There are a number of different ways you can control the electronic systems in your home: by pressing the buttons of a handheld remote or wall-mounted keypad, by touching colorful icons on a portable touchpanel or by sliding your finger across your iTouch. Depending on your family dynamic, budget and preferences, you might like to utilize a variety of different controllers (most people do, says David Slade), so make sure the automation manufacturer offers a wide selection of interfaces.
6. Time-Tested
No one, except for serious early-adopters, likes to be the guinea pig, so choose an automation system with a proven track record. Same goes for the person who installs the system into your home. Look for an installer who’s been installing the same systems for a number of years,” suggests David Slade. You should be able to gather some historical background about manufacturers and installers from their company websites.
7. Strong Dealer Network
“You can have great equipment, but you’ll need a highly trained and certified installer in order to get your money’s worth. It’s a no brainier real” says David Slade. Good home automation manufacturers go above and beyond to create a strong brand and support network, by offering continual education and training and by supporting multiple dealers in a single geographic area. For consumers, having more than one dealer to choose from is important. When more than one dealer carries a particular product in your area, pricing is more competitive and should one dealer go out of business, there’s someone else you can call to pick up the pieces.
8. Commitment to Energy-Savings
One of the hottest topics in the consumer media is energy conservation. Automation systems can help save energy by turning off electronics devices automatically, and some do this better than others. Be sure to check out the energy-saving features of a system before you buy.
9. Layer of Protection
Everyone always wonders what happens to an automated house when the power goes out. Does the system forget how to operate the lights when power is restored? If an automation system has the appropriate back-up protection, you won’t have to worry about that.
10. Can-do Attitude
This goes both for the designer, installer and the manufacturer. Automation is only beneficial and practical if it fits your lifestyle. Since everyone’s lifestyle is different, the manufacturer should provide its installers with the tools to customize the system to your specific needs. If there’s something that you want your system to do and your installer says it’s impossible, either he or the manufacturer has failed you. Keep looking.
Posted in ZigBee, Home Automation, Home automation network (HAN), Integration, Davmark, Housing | No Comments »
Smart homes - building management systems for residential applications
08/06/2009 by David Slade.
With the widespread adoption of digital technologies there will be a profound change in how we communicate with others. Even how, in our homes, we shop for goods and services, receive news, manage our finances, learn about the world, and, conduct business, manage resources, find entertainment, and maintain independence and autonomy as we enter old age.
These activities increasingly take place in the home. As our perception of banks, shops, universities, communities, and cities change in response to new technologies, so home building management systems are taking on an extraordinary new importance.
As it exists today the home cannot meet these demands or take advantage of new opportunities created by social and technological changes. Most people live in spaces poorly tailored to their needs.
Until recently, the majority of homes were wired with little more than the main electrical circuits, a few phone lines, and a few TV cables. Times have changed. Electrical and security system contractors routinely install low voltage communication network cables for a wide range of intelligent home or ’smart home’ systems.
Services and equipment that utilise these networks include: security; home theatre and entertainment; telephones, door-phones and intercoms; PC and internet networks; surveillance cameras; driveway vehicle sensors; communicating thermostats; motorized window blinds and curtains; entry systems; and irrigation systems.
Smart homes
‘Smart home’ is an alternative term for an intelligent residential building, or an intelligent home. A few years ago these concepts weer considered futuristic and fanciful. Now they are reality. These terms are now commonly used to define a residence that uses a control system to integrate the residence’s various automation systems.
Integrating the home systems allows them to communicate with one another through the control system, thereby enabling single button and voice control of the various home systems simultaneously, in pre-programmed scenarios or operating modes.
The development of smart home systems focus on how the home and its related technologies, products, and services should evolve to best meet the opportunities and challenges of the future. The possibilities and permutations are endless.
Posted in residential, Smart homes, Home automation network (HAN) | No Comments »
Home automation network (HAN)
04/06/2009 by David Slade.
A basic overview of HAN architecture for AMI
The push for more consumer involvement in smart grid initiatives is slowly becoming more evident as companies and utilities attempt to grasp the overall impact of government mandated deployments of the smart meter. Understanding what the consumer needs and wants is quickly rising in importance with the goals and objectives of the energy industry.
There are various views and opinions as to how the US federal and state mandate translates to practical solutions. Primary as a viable solution is the deployment of smart meter technology. But not all smart meters are the same, hence the need for a more encompassing option. The complicated field of metering with its canopy of applicable hardware and software results in making intelligent decisions a difficult and rocky road for AMI proponents. Some have focused instead on defining what a smart meter is or isn’t. The resulting business models may or may not be implementable as technology changes the landscape or costly if human behavior fails to adjust to and embrace the deployed solution.
One thing is certain, that a smart meter without interaction from the occupants would diminish the gain in energy use reduction and jeopardize the utilities’ attempts at conservation and global warming compliance.
If the solution isn’t found through meter deployments, then it stands to reason that involving the consumer via technology and education makes sound business and good social sense.
This brings us to the need for a home automation network (HAN) – either a simple system or a complex one. Many envision the HAN with the smart meter as the center or focal point for data gathering and exchanging. The smart meter is the gateway through which the rest of the world garners information about the occupant’s electricity consumption. Others would rather have an independent gateway within the premise that is more controlled by the occupants with privileges allocated to the utilities or an AMI service company. The meter then would be just another peripheral device in the network that links the local network with the outside utilities. The internal home gateway would restrict and determine what information is available to external sources. The former is more in line with what the utilities are implementing while the latter favors the telecom, cable, and IT industry approach, which focuses on broadband home networks and less on low power mesh.
Planning a HAN in an uncertain market that is constantly changing and evolving can be daunting to any individual or company considering AMI deployments. Most seek simple solutions that require very little capital or are constrained to limited HAN implementation. Deploying programmable communicating thermostats (PCTs) is one way of semi-automating the home environment for demand response. Using in-home displays that link the external meter to a remote handheld or tabletop unit is another. Whatever the technology used, these early approaches to consumer involvement demonstrate a growing awareness for HAN planning and consideration.
Critical to planning any future HAN system is the communications architecture being considered. The current emphasis on mesh radio technology and the availability of completely different mesh protocols (ZigBee, Z-Wave, OpenRF, and so on) within each of these radio systems creates both opportunity and potential disaster when considering HAN development and deployment. Other networked communications architectures include power line modems, Ethernet, Wi-Fi, Bluetooth, and RS485 – all which add layers of complexity to deploying HAN technology. Coupled to this melee of competing options is the dearth of home networked products that provide meaningful and practical demand response solutions.
Making the right choice of communications backbone may well be defined in the legacy system requirements, the data requirements, the environment in which the HAN is located and how the HAN is to be used by the occupants. Cost and ease of deployment/implementation along with the level of after sales support required are considerations that impact a successful planned launch. Whatever choice is made, the decision to go with one or the other could also limit the availability of peripheral devices that can operate within that chosen communications architecture and by default the functions and features available to the consumer. So choosing wisely is paramount.
The correct solution to determining a HAN configuration is the “backwards” approach. Simply put, deciding what end result the network must accomplish and then determining which technology is best suited to do this. In most instances, a cost analysis report or a business case based on reliable information would suffice in evaluating the technology being considered. In other situations where the technology is not proven or the decision makers are not knowledgeable, a trial or test site may be necessary to familiarize everyone with the option.
As mentioned earlier, the market forces driving HAN development and deployment are directly related to the industry and its perspective of market need. Other drivers such as political and global issues also impact consumer anxiety and perception within the market. Hence developing a strategy for HAN architecture must take into consideration those drivers.
A typical HAN may consist of the following basic functional components:
- Node controller/gateway/central controller. A node controller is common within mesh networks for maintaining the communications link and exchanges necessary within the protocol. It may or may not be the gateway. The gateway, on the other hand, is the portal through which multiple conflicting protocols link and talk seamlessly. A central controller can be all three plus a data manger/data logger. It manages the network from a user perspective (such as a home computer or a home media server which can act as the controller).
- Peripheral devices. The fingers and hands of the HAN are seen in the sensor devices that gather information or provide levels of control. Such devices, such as a PCT, provide a measure of remote command and control to the premise HVAC system. Internal to these devices is the communications backbone which links the devices to the central element of the network.
- Software. There are myriad functions that must be accomplished for a HAN to successfully fulfill its intended design. For example, the mesh protocol software manages the mesh network communications within a low power radio configuration. At the gateway, the different protocols must be translated correctly and the data sent to the correct recipient. Throughout the network, some form of security must be employed – whether through software encryption or access denial methodologies. There is a large amount of embedded code within the peripherals that program the tasks associated with those devices. These command and control codes must be incorporated into a central controller which provides remote interaction with the sensing devices.
External to the HAN is the smart meter which may be the gateway to the utility. The smart meter may also just be a peripheral if the HAN has its own dedicated gateway. A smart meter that is very basic or uses wired access may need a HAN that incorporates a gateway. Shifting the gateway away from the meter may be a better cost solution or a strategic decision based on any number of factors. When deciding on the HAN to meter interfacing, these type decisions need to be considered.
A basic HAN (wired and/or wireless)
Posted in Wi-Fi, Bluetooth, Node controller, gateway, OpenRF, Z-Wave, Integration, Home automation network (HAN), ZigBee, IIT | No Comments »



























































