Affichage des articles dont le libellé est Smart grid. Afficher tous les articles
Affichage des articles dont le libellé est Smart grid. Afficher tous les articles

samedi 4 mai 2013

Will Utilities Embrace Distributed Energy?


Disruptive technological changes are at work but utilities are hamstrung by outdates business models and regulations.


How will utilities maintain the grid infrastructure in an age when people consume less energy from the utility?

A homeowner who puts solar panels on his roof immediately slashes his monthly electricity bill and gains a measure of independence from the utility. As more distributed energy technologies take hold, utilities in the U.S. are wondering out loud what their future holds.

It’s not just falling prices of solar photovoltaic panels that are slowly moving power generation out to the edge of the grid network. More people are looking at natural gas generators and energy storage systems that complement grid power and provide backup power during outages. And there are more ways to save electricity, such as efficient appliances and reports to encourage efficiency, or demand response to shave peak power use through smart thermostats. (See, Nest Thermostat Slays Peak Power.)

Earlier this year, industry group the Edison Electric Institute (EEI) published a Disruptive Challenges report outlining the risks to the financial well-being of utilities from distributed energy. It recommends a push to reexamine policies that create incentives for renewable energy, particularly net metering, and advocating pricing changes that ensure utilities can recover the cost of maintaining the physical grid infrastructure.

David Crane, the CEO of NRG Energy, which owns power plants and provides residential utility service, called distributed solar a “mortal threat” to utilities earlier this year. Last week, he predicted that the natural gas industry will “disintermediate the electric power industry” and provide power-generating appliances in people’s homes, which could be fuel cells, microturbines, or types of Stirling engines.

“These energy-producing appliances on the cusp of being deployed will allow people to walk away from the grid and produce electricity in their home,” Crane said at the Bloomberg New Energy Finance conference last week.

The transition from a heavily centralized power grid to one with rooftop solar panels, natural gas generators at homes and businesses, plug-in electric vehicles, and technologies to reduce electricity use is clearly underway. Crane’s comments and the EEI report reflect the unease rippling through the traditionally slow-moving utility industry. The question is how utilities react to this transition and how that affects the future of electricity service.

Earlier this week, experts at the Advanced Energy Conference in New York City discussed how disruptive forces at play in electric power pose thorny questions, but offered few obvious paths for utilities to profit from them. Although there are a number of progressive utilities, their comments suggest that most utility industry companies will resist the dramatic changes imposed by technological changes.

The problem isn’t just that utilities will be marginalized if consumers and businesses can generate power themselves and only use the grid is backup. When customers use fewer kilowatt-hours either through efficiency or distributed generation, it cuts off utilities’ source of revenue and the way they fund up-keep of power lines, substations, and other equipment. Although rules vary, in general utilities propose infrastructure upgrades and state regulators approve those decisions and the rate of return they can make on those investments.

But if many more people lessen their reliance on power from utilities, the pool of available money to make those upgrades starts to shrink. The tab for upgrading the basic infrastructure, including smart meters, is hundreds of billions of dollars in the US in the next five years, says Bill Zarakas, principal at the consulting company the Brattle Group. Added on top are initiatives to make the grid more resilient in the wake of hurricane Sandy. Meanwhile, more efficient use of energy and muted economic growth means electricity growth nationally is essentially flat. “You’re really asking us to recover investments through sales but to sell less. It’s a bit of a disruption,” he says.

In a few cases, utilities have been able to earn revenue by owning rooftop solar arrays and other distributed energy assets, but that’s the exception. In New York, for instance, deregulation placed a de facto ban on utilities from owning power generation, which at the time meant centralized power plants. Now regulators are reconsidering those rules as distributed solar expands, says Kimberly Harriman of the New York Department of Public Service

In many ways, electric power is going through a similar transition to the telecom industry in the 1990s when deregulation introduced competition in local telephony, which cut off a reliable source of revenues for phone companies. “Distributed energy resource technology…can do to electric utility industry what wireless handheld technology has done to the telecom industry. This will be revolutionary,” said Paul DeCotis, vice president of power markets at Long Island Power Authority.

But Brattle’s Zarakas is skeptical that utilities can mimic the telecom industry’s transition and will somehow make up lost revenue from distributed generation and efficiency with add-on services. Telecom companies were able to offer much desired services—broadband Internet, mobile phone service, and content—but utilities don’t have any clear equivalents and aren’t normally in the business of offering innovative services, he says.

The disruption spills into the commercial world as well, where more universities and businesses are looking to establish microgrids that can “island” themselves from the grid if power goes out. (See, Microgrids Keep the Power Flowing Through Sandy.)

Overall, experts say that the basic funding mechanism for utilities needs to change so they have financial incentives to enable adoption of new technologies and encourage customer energy efficiency. Many changes along those lines could be a tough sell in the utility industry, which is famously conservative. But they may not have a choice. “Distributed generation is something that couldn’t be stopped even if we wanted to,” says Zarakas.

Source : MIT Technology Review, Martin LaMonica, May 3, 2013

vendredi 5 avril 2013

Projets et expérimentations smart city dans le Grand Lyon

De nombreux projets et expérimentations illustrent le leadership du Grand Lyon à l'échelle européenne sur la thématique smart city.


Transition énergétique et smart grids

perspective Lyon Confluence, îlot P vu depuis la Région
Lyon Part-Dieu : projet vu depuis le sud (perspective p.94)
pavillon des Salins à Lyon Confluence
Sur le thème de la transition énergétique et des smart grids, le territoire lyonnais accueille un nombre tout à fait remarquable d'expérimentations et démonstrateurs : Lyon Smart Community (avec le NEDO) ; Greenlys ; Smart Electric Lyon ; Watt & Moi ; le déploiement expérimental de Linky ; le projet européen "Transform" en partenariat avec Amsterdam, Copenhague, Vienne, Gene et Hambourg, etc.

Nouvelles formes de mobilité

vue aérienne de l'agglomération lyonnaise, mobilité
Maxity électrique de Renault Trucks, place Bellecour à Lyon
logo CityLog, city logistics
logo FREILOT
Dans le cadre de la réflexion sur les nouvelles formes de mobilité, des projets majeurs sont également en cours : Optimod'Lyon ; Move In Pure, E-Partage ; Auto-lib ; offre de co-voiturage dynamique ; projets européens "Freilot" et "Citylog", etc.

Services dématérialisés et sans contact

Des services dématérialisés et sans contact sont initiés très régulièrement sur les volets : paiement, information voyageurs ; information culturelle et touristique ; services publics dématérialisés, etc.

Lyon, une ville "intelligente" en énergie


La ville de Lyon se positionne en tête des villes françaises sur la problématique de l’avenir des réseaux électriques. Pour preuve, le Grand Lyon compte à ce jour six projets de réseau « intelligent » sur son territoire.
Le réseau intelligent d’énergie (appelé communément en anglais « smart grid ») utilise les technologies de l’information et de la communication et doit permettre :
  • aux fournisseurs de mieux gérer leur production,
  • aux distributeurs d’anticiper les périodes de pic de consommation,
  • l’intégration plus facile des productions décentralisées intermittentes issue des énergies renouvelables.
  • Aux consommateurs d’avoir une meilleure visibilité sur leur facture énergétique.
Les tableaux ci-dessous mentionnent les divers projets identifiés par l’ALE sur le Grand Lyon ainsi que leurs spécificités.


Projet Greenlys

Le projet GREENLYS vise dans un premier temps à suivre et visualiser les consommations électriques des expérimentateurs ; puis dans un second temps, à lisser les pics de consommations et à optimiser les réseaux de distribution.
Nature du projetProgramme à Manifestation d’intérêt ADEME
Pilote et partenairesErDF, GDF SUEZ, GEG, INPG, Schneider
LocalisationLyon et Grenoble
Durée du projet4 ans (mi 2012 à mi 2016)
Budget40 millions d’euros
Lien internethttp://www.greenlys.fr


Projet Smart Lyon
Le projet Smart Lyon consiste à expérimenter le compteur Linky (compteur communicant d’ErDF), puis à piloter à distance les appareils électroménagers.
Nature du projetProgramme à Manifestation d’intérêt ADEME
Pilote et partenairesEDF
LocalisationLyon 4ème, 5ème, 6ème et 9ème - 11 communes du SIGERLY
Budget100 Millions d’euros


Projet NEDO
Le projet NEDO vise à gérer de manière dynamique un bâtiment à énergie positive, à communiquer les consommations énergétiques via une « EnergyBox », à gérer la charge des véhicules électriques via la production photovoltaïque.
Nature du projetPartenariat NEDO – Grand Lyon
Pilote et partenairesGrand Lyon – NEDO
LocalisationLyon 2ème Quartier de la Confluence-Ste Blandine
Durée du projet5 ans
Budget50 Millions d’euros

Projet Watt&Moi

Le projet Watt&Moi consiste en la familiarisation des données de consommationélectrique via un site internet, le suivi des consommations électriques via le compteur Linky et un suivi sociologique des expérimentateurs.
Nature du projetPartenariat ERDF – Grand Lyon Habitat
Pilote et partenairesErDF - Grand Lyon Habitat
LocalisationLyon 4ème, 5ème, 6ème et 9ème
Durée du projet2 ans (mai 2012 à mai 2014)

Projet Transform

Le projet Transform concerne la future planification énergétique pour le quartier Part-Dieu.
Nature du projetProjet européen smart cities
Pilote et partenairesGrand Lyon – ErDF - HESPUL
LocalisationLyon 3ème Quartier Part-Dieu
Durée du projet2 à 3 ans
Budget1 million d’euros

Projet Showe It

Le projet Showe It vise une réduction de 20% des consommations énergétiques tous usages confondus et d’eau via les systèmes ICT.
Nature du projetProjet européen
Pilote et partenairesGDF SUEZ – Cité Nouvelle - Armines
LocalisationEcully
Durée du projet3 ans (jan. 2011 – déc. 2013)
Budget3,7 millions d’euros
Lien internethttp://showe-it.eu/




Source : Agence Locale de l'Energie (ALE) - Lyon Agglomération- http://www.ale-lyon.org/

mercredi 23 janvier 2013

A startup emerges to use wireless mesh and the cloud to fight energy theft

SUMMARY:
Awesense, a startup using wireless mesh tech and software, has launched to sell utilities energy theft-prevention. Didn’t know it was such a problem? A Canadian utility has said it’s losing $100 million a year to theft; in India about 30 percent of power is used illegally.
Power grid Old Delhi



Awesense
Utilities call energy theft — like when an indoor marijuana farm taps directly into a high voltage line for its super bright lights — a “non-technical loss” or a “commercial loss.” It’s a bizarrely mundane term to describe thefts which cost utilities billions of dollars in losses a year around the world. For example, Canadian utility BC Hydro has estimated that it’s losing a shocking $100 million each year from power theft.
That security problem is what a young Canadian startup called Awesense has emerged to tackle. The company, founded back in late 2009, has developed a product that uses power line sensors connected through a wireless mesh network combined with a cloud-based application. Utility workers can use the combo to remotely monitor and learn details about how much power their companies are actually distributing, versus how much power is being measured by their billing systems. In other words, “how much revenue they’re losing,” as Awesense founder and CEO Mischa Steiner-Jovic explains it.
Awesense’s technology is a mobile solution — utility workers clamp on the power line sensors wherever they suspect theft is happening, and if no theft is being detected they can simply move the network to another part of the grid. The sensor nodes create the ad-hoc mesh network amongst themselves (via the 915 band in North America, for all you wireless spectrum geeks out there).
Awesense
The capital expense of the networks are low enough that Awesense has now decided to start selling theft detection as a service. Awesense will install the technology for utilities for no upfront cost, and then take a cut of the revenue saved. Steiner-Jovic says over the past few years they’ve realized that there’s been a lot of interest from utilities for the theft-detection product, but that utility budgets are often times small and rigid.
In addition to growing its theft detection-as-a-service this year, Awesense is hoping to grow its list of international customers, where energy theft is a massive issue. Currently it has customers (it’s not disclosing the names other than Fortis BC) in Canada, the U.S., and Latin America, and it’s looking to Awesenseexpand more into Latin America as well as Asia Pacific and Europe. India has some of the highest theft losses in the world, with close to 30 percent of the power in the country lost to theft (check out some photos of the crazy jerry-rigged power grids of Old Delhi). The former Soviet Union has almost 50 percent. Brazil is at 15 percent.
To date, Awesense has been mostly bootstrapped, and just raised a “seven figure” round from angels last Summer. Steiner-Jovic says the company could be interested in raising a venture round in the future to grow its business. Applying IT tech to the power grid and clean energy is still an area where startups have been able to get funding from some venture capitalists, despite the difficult funding environment for most cleantech.
Source : GigaOM

mercredi 2 janvier 2013

Lux’s 10 emerging tech companies to watch in 2013


While not all of the picks are focused on clean energy — one’s an enhanced oil recovery company — they all have early stage technology that could break through next year.
Silevo Single Buss Bar Cell
Lux Research has put together a group of cutting-edge emerging technology companies to watch in 2013 and we’re stoked that they’ve picked a whopping nine in the energy field. While they’re not all focused on clean energy — one’s an enhanced oil recovery company — they all have early stage technology that could break through next year.
We also haven’t heard of most of these firms, so I wanted to include the whole list here and see what you guys think of their choices. The picks include everything from startups to publicly traded companies, and from American firms to companies in Canada and Germany.
1). Beta Renewables: A $350 million joint venture between Gruppo Mossi & Ghisolfi and TPG, Italian company Beta Renewables is scaling up a commercial cellulosic ethanol factory, which it began operating in the fourth quarter of 2012 in Italy. The plant is supposed to eventually make 20 million gallons of cellulosic ethanol per year, starting from an initial volume of 40,000 tons. Beta Renewables uses enzymes to break down non-food biomass and then uses a fermentation process to turn it into biofuels.
2). Materials Innovation Technologies: The company makes carbon fiber parts for lightweight vehicles from recycled materials, and it’s also been working on natural fiber bio-based parts and recycled fiber parts. Founded in 2004, Materials Innovation Technologies has big partners like Boeing, and has a factory in Lake City, South Carolina.
2980986068_abfd3440d7_b
3). N-Solv: N-Solv injects heated gas into oil sand reservoirs to extract more oil, but says its process is more efficient, more sustainable and cheaper than competitive processes. The company has a pilot plant that is supposed to start production in spring of 2013 in Alberta.
N-Solv
Imprint Energy4). Imprint Energy: Imprint Energy makes zinc-based flexible, slim batteries for electronics. The company, based in Alameda, Calif., was founded in 2010 and the technology was developed at the University of California, Berkeley.
5). Phosphagenics: The only non-energy company on the list, Phosphagenics is an Australian publicly-traded biotech company that makes skin-based drug delivery technology (like a patch or a cream).
6). Azzurro Semiconductors: A German semiconductor maker that develops gallium nitride on silicon substrates, called GaN-on-Si. These semicondcuctors are used to makes LEDs and as the basis for power electronics. The company is backed by Good Energies, Emerald Technology Ventures, Wellington Partners Venture Capital and GoodVent.
Enbala7). Enbala Power Networks: Enbala creates a network that can manage building power devices — like boilers, chillers, and battery stations — to sell what’s called regulation services, or making sure the grid is kept in balance in real time, to utilities and power companies. With headquarters in Toronto, the company is backed by Walsingham Growth Partners, Chrysalix Energy Venture Capital, and others.
8). Boulder Ionics: The company makes ionic liquids that can be used as the electrolyte for energy storage technologies like batteries and ultracapacitors. The company raised $4.3 million from Pangaea Ventures, 9th Street Investments, CalCEF Clean Energy Angel Fund, JSR Corporation and Protonic Capital. The company also has a $1 million grant from the National Science Foundation (NSF), U.S. Air Force (USAF) and U.S. Navy (USN).
ipad-battery
9). Silevo: One of the few companies on the list we’ve profiled, Silevo’s solar cells use silicon to convert sunlight into electricity, but its cells use more efficient single-crystal silicon (as the substrate) and amorphous-silicon to manipulate the voltage and current of the cells. The company also uses copper instead of silver, which is more expensive, to create the ultra thin lines that ferry electricity out of solar cells. The result is a solar cell that is more efficient at converting sunlight into electricity than the dominant silicon-only cells on the market today.
Silevo Single Buss Bar Cell
10). Desalitech: Desalitech is a water desalination tech company that says its water cleaning process is more reliable, flexible and costs 20 percent than competitors. Israeli water company AquAgro Fund and private equity fund Liberation Capital are investors.

Source : GigaOM

vendredi 21 décembre 2012

Data Analytics and Smart Grid: The Rising Tide for Power Utilities


While power utilities like to claim that they employ data analytics, they really 
Data Analytics and Smart Grid: The Rising Tide for Power Utilities
don’t.
While power utilities like to claim that they employ data analytics, they really don’t. Utilities tend to have last-gen business intelligence (BI) reporting solutions that they call “analytics,” but that typically amount to not much more than reporting tools or descriptive analytics (primarily based on older database architectures running SQL), as opposed to the real-time and predictive software using complex event processing, to which the term “analytics” is now commonly understood to refer.

Utilities are today seeking to become more proactive in decision-making, adjusting their strategies based on reasonable predictive views into the future, thus allowing them to side-step problems and capitalize on the smart grid technologies that are now being deployed at scale. Predictive analytics, capable of managing intermittent loads, renewables, rapidly changing weather patterns and other grid conditions, represent the ultimate goal for smart grid capabilities.

Based on GTM Research’s latest report, The Soft Grid 2013-2020: Big Data & Utility Analytics for Smart Grid, the leading areas of concern for utilities within data analytics are:
  • Achieving an enterprise-wide IT architecture where all relevant data can be shared with all other necessary departments, systems and applications. 
  • Ensuring that the enterprise is big-data-ready vis-a-vis the data storage and data management layers of its architecture.

Once utilities begin to overcome these foundational architecture issues, they can then begin to move into the deployment of analytics. The bulk of momentum behind utility analytics deployment is coming from:
  • Consumer-based analytics
  • Situational awareness gained through synchrophasor/phasor measurement unit (PMU) reporting the health of the transmission grid on an ongoing basis
  • Grid optimization analytics of the distribution networks (e.g., voltage management)

A recent GTM Research survey of more than 70 global utilities, which was conducted in partnership with the SAS Institute, displays how well different stakeholders understand the value that analytics provide. Not surprisingly, the survey confirms that utilities themselves report having the most momentum for analytics in the domains of customer management and grid operations.
FIGURE: In What Areas of the Business Do Analytics Seem to Have the Most Momentum?


Source: The Soft Grid 2013-2020: Big Data & Utility Analytics for Smart GridSAS Institute

Historically, very little, if any, analytics have been performed on the consumer side. This is due largely to the fact that this industry primarily operates in a monopolistic fashion, with only a smattering of states allowing retail competition. However, the era of smart grid has sparked a renewed interest in demand response and energy efficiency. It appears that utilities are beginning to improve both the data and the level of analysis they are willing to offer customers.

In considering utilities’ progress to date, it should be pointed out that most of the early success stories are rather narrow in scope and often are limited to a single domain. It is GTM Research’s conclusion that the true implementation of broader analytics (both customer-enabling and enterprise-wide) is not yet underway.

However, another trend that is occurring is that employees and customers are beginning to ask for access to particular datasets. At the current juncture, many utilities are not equipped to fulfill these requests, as they do not have enterprise-wide data architectures in place.

In many instances, this has resulted in a growing level of frustration, particularly as employees from other non-operational departments clamor for access to smart meter data. It is our belief that this situation will put some pressure on utility CIOs to properly design the right architectures to allow universal access.

FIGURE: How Would You Rate Your Utility’s Analytics Competencies? (5 Is the Highest, 1 Is the Lowest)

Source: The Soft Grid 2013-2020: Big Data & Utility Analytics for Smart GridSAS Institute
Some progressive utilities, such as OGE, SCE and SDG&E, realize that there has been a paradigm shift and are beginning to make strides. However, the results of the survey indicate that the majority of utilities give themselves low marks in areas such as the utilization of analytics for reliability, the utilization of analytics for customer satisfaction, availability of enterprise-wide analytics, data integration of smart meter and grid operations data, and the propensity for data-driven decision-making in general.
The majority of utilities will therefore be challenged over the next ten years to invest properly in big data infrastructure, software, and services in order to avoid the risk of moving too slowly and having their enterprises be overwhelmed by the rising tide of smart grid data.
Source : GreenTech Media

jeudi 13 décembre 2012

Data Centers : IT Efficiency Leads to Smart Grid Savings


Grid-side opportunities abound for data centers via virtualization, server optimization, and “load migration.”
Data centers make an interesting, if challenging, target market for integration into the smart grid. Sure, they’re a huge source of power, running about the smartest power loads in existence -- lots and lots of servers, routers, switches, and other IT equipment. That should make them a natural fit for the network of IT that’s connecting utilities to their customers to better manage power across the grid.
Data centers also tend to have a pretty hands-off attitude when it comes to hooking up to the local utility. Most data centers have installed expensive batteries and backup generators to take over during outages -- but they’re not very interested in turning over those resources during peak power times or other such grid emergencies, since that’s when they’re also most likely to be facing their own power crunch.
But rising power prices, combined with the IT world’s insatiable hunger for more server space, are bound to push data centers and utilities closer together. Beyond lowering power bills, data centers face key pinch-points in capacity that need to be handled right away -- some customers may need to increase computing capacity in the same crowded space, while others may need to increase capacity without exceeding the amount of power their local substation can provide.
Luckily for the data center world, it appears that their IT needs and their energy demands can align nicely for savings for themselves and the grid. According to an August report from Lawrence Berkeley National Laboratory (PDF), data centers can shave power bills by up to a quarter, simply by managing their IT resources more intelligently -- and with the grid’s needs in mind.
The study included funding from the California Energy Commission’s Public Interest Energy Research (PIER) Program and utilities Pacific Gas and Electric and San Diego Gas and Electric. It also saw participation by two data center efficiency startups, Santa Clara, Calif.-based PowerAssure and Sacramento, Calif.-based SynapSense, which are both working with data center partners in the state.
According to the study, “With minimal or no impact to data center operations, a demand savings of 25% at the data center level or 10% to 12% at the whole building level can be achieved with strategies for cooling and IT equipment, and load migration.”
The report came with a long list of caveats, however, including the fact that it only tested four data centers. It also noted that not all of the responses used for maximum energy savings would be appropriate for “mission-critical” data centers like, say, the ones that control Wall Street or the Pentagon.
It also stressed that “load migration,” or moving computing loads back and forth between data centers to maximize energy market savings and revenue opportunities, would require an underlying level of IT sophistication that not all data centers have.
“If the applications are data-center independent -- if they can switch from one to another seamlessly, which they have to do for reliability anyway -- then you have enough flexibility to play in the energy market,” Clemens Pfeiffer, CTO of PowerAssure, said in an interview last week. “On the other hand, “If the application doesn’t support it, you can’t do it.”
In other words, data centers are already making the IT infrastructure improvements they need to play into energy and grid markets today -- if only they have the tools to recognize it. Becoming aware, in turn, can lead to grid-facing opportunities, both to reduce cost and to generate revenue.
So how have data centers taken up the challenge? We’ve seen a number of projects building the links to allow data centers to interact with the smart grid at large, such as Cisco’s project with NetApp and Pacific Gas & Electric in 2008. That project paid itself off in utility rebates as well as power bill savings.
But the next level of data center energy optimization -- the kind that brings load migration and other more advanced concepts into play -- is far less common. After all, this technology is all brand new, and most data center operators are leery of turning over control to any system that could negatively affect uptime.
Even so, we’re seeing more and more integration of energy data into the way data centers are run today. IT giants like HP, IBM, Intel, Cisco, Microsoft and Oracle are improving server performance per watt, and integrating energy data more closely into their data center infrastructure management (DCIM) platforms. Big grid players like ABB, Siemens, GE and Schneider Electric are also making forays into the data center. Then we’ve got startups like PowerAssure, Vigilent (formerly Federspiel Controls), SentillaVigilent andJouleX, to name a few, each bringing their own combination of capabilities to market via partnerships in the industry.
PowerAssure, for its part, has been working on data center-smart grid integration with Virginia’s Dominion Power since late last year. Earlier this month, it announced a partnership with iTRACS, a maker of data center mapping and visualization software, to provide its suite of software as a cloud-hosted service, or as a turnkey platform for customers concerned about keeping data center data under strict security, Pfeiffer said.
Other startups are linking up with companies that are designing the next generation of high-efficiency gear for the data center. JouleX, the Atlanta-based startup that works with customers including Cisco, Intel and VMware, has also worked closely with Calxeda, maker of ARM-based high-efficiency servers, for example. It has also worked with Cisco on a powered-over-Ethernet (POE) LED lighting system, similar to that deployed by startup Redwood Systems in Facebook’s super-green data center in Oregon.
Underlying all these technical approaches is a common challenge, however, Pfeiffer said -- convincing the human beings in charge of making investment decisions that energy-smart data centers are worth the cost. “Our problem today is, we need to quantify the opportunity, then have the infrastructure to do it, and the tools to participate in it,” he said.
Source : GreenTech Media

lundi 8 octobre 2012

Sep 19, 2012 - 10:16AM PT Building data startups team up around real-time energy data


Building data startups Honest Buildings and Lucid Design Group are teaming up to put the real time energy data of thousands of commercial and government buildings online.
Lucid Buildings Dashboard_Constellation Energy_750 East Pratt Street_Baltimore_MD-1 copy
Two startups with tools that can unleash the hidden data within buildings have teamed up around real time energy data. Lucid Design Group, which installs energy dashboards and wireless sensor systems for buildings, has integrated its customers’ real time energy data into Honest Building‘s site that aggregates data about the energy use and green characteristics of buildings.
Essentially, the bulk of Lucid Design Group’s building customers (2,000 of ‘em) — like Brown University, Turner Construction and the city of Bloomington, Indiana — will be displaying their real time energy data on Honest Building’s site. For example, in the screenshot below, you can see the energy use of DPR Construction’s office building in San Diego by 15 minute intervals, broken down by appliance, and compared to national and local averages.

Honest Buildings has created a site that pulls in data about energy use and green characteristics of buildings from a variety of sources including data from the building owners, green building technology service providers and public databases. The Honest Buildings team displays all this data for free online, and hopes to promote transparency and some friendly competition between building managers by exposing this data (they also have a subscription premium service).
Real time energy data could add a level of granular data that the Honest Building’s site previously didn’t have. As the two companies explained to me in a phone interview this week, a lot of the publicly-available data about building energy use is annual, which doesn’t paint too accurate a picture of what it’s like to rent space or live in the building. But real-time energy data allows building managers or potential tenants of the buildings to get a much better sense of the costs and energy usage of the buildings.
Honest Buildings earlier this month raised its first round of venture funding led by RockPort Capital and Mohr Davidow Ventures. Previously the company, which is about a year old, raised an angel round from Spring Ventures; Jason Scott, managing partner at EKO Asset Management Partners; and Lisa Gansky, author of The Mesh. Lucid Design Group, founded in 2004, has raised $1.5 million led by Dry Creek Ventures.

Source : GigaOM

lundi 24 septembre 2012

L'effacement de consommation d'électricité mise en oeuvre en Bretagne


L'effacement de consommation d'électricité mise en oeuvre en Bretagne
RTE a annoncé avoir retenu, dans le cadre d'un appel d'offres lancé cet été, des offres d'effacement de consommation et de production locale, mobilisables cet hiver lors des pointes de consommation en Bretagne.Les lauréats s'engagent à mettre à disposition de RTE environ 70 mégawatts, soit l'équivalent de la consommation d'une ville comme Quimper.
Les capacités pourront être mobilisées dès le mois de novembre par RTE, en étroite coordination avec ERDF, sous réserve d'une validation des règles de cette expérimentation par la Commission de Régulation de l'Energie (CRE). Ce projet, qui constitue une première en France, est destiné à améliorer la sécurité d'alimentation en Bretagne, en complément des mesures structurelles décidées dans le cadre du Pacte électrique breton.

Engagé dans le Pacte électrique breton, aux côtés de l'Etat et de la Région, RTE a proposé en juin dernier, dans le cadre de la Conférence Bretonne de l'Energie, une expérimentation pour répondre aux besoins en électricité de la région lors des pointes de consommation, en particulier durant les vagues de froid et ainsi réduire les risques de black-out.

A la demande de RTE, de nouvelles capacités (réduction de consommation ou production locale raccordée sur le réseau de distribution) seront mises à contribution pour répondre aux contraintes régionales du réseau de transport, dans l'attente des renforcements structurels à venir (notamment le « filet de sécurité » constitué de liaisons électriques souterraines à 225 000 volts et la centrale électrique de production dans le Finistère).

Après approbation par la CRE d'un cadre réglementaire spécifique, qui devrait intervenir en octobre, les contrats seront signés avec les acteurs retenus. A ce stade, suite à l'appel d'offres lancé par RTE cet été, 6 acteurs ont été sélectionnés : Actility, Dalkia, EDF, Energy Pool, Novawatt, Voltalis. 

Cette expérimentation est une démarche originale et inédite qui offre la possibilité aux acteurs disposant de petites puissances d'effacement ou de production (1 MW ou plus) sur le territoire breton, de les valoriser dans le cadre du mécanisme d'ajustement.

Le dispositif sera mis en œuvre du 1er novembre 2012 au 31 mars 2013, et intervient en complément des autres actions prévues dans le cadre des trois axes du pacte électrique breton (énergies renouvelables, sécurisation dont les nouvelles capacités de production électrique dans le Finistère, Maîtrise de la Demande en Electricité). Il fera l'objet d'un bilan au printemps prochain, avant de décider de son éventuelle reconduction pour l'hiver suivant.

Des règles expérimentales adaptées aux besoins bretons : une première en France 


La prise en compte des capacités de petite puissance sur le réseau breton nécessite une adaptation importante du mécanisme d'ajustement de RTE, dimensionné pour accepter des capacités supérieures à 10 MW. La mobilisation des capacités sera effectuée par voie électronique, assurant ainsi une plus grande rapidité d'action.

Les règles ont été définies par RTE, en concertation avec les acteurs du marché de l'électricité et les acteurs bretons, avec la volonté spécifique de favoriser l'émergence de nouvelles capacités. RTE, en étroite collaboration avec ERDF, testera aussi des modalités simplifiées pour la mobilisation des capacités raccordées sur le réseau public de distribution, au service du système électrique. Ces modalités simplifiées pourront servir de base pour favoriser ultérieurement le développement des effacements de consommation à une échelle géographique plus large.

Les principaux critères retenus contractuellement pour l'expérimentation : 

- Proposition de puissances dès 1 MW
- Possibilité d’agréger plusieurs sites inférieurs à 1 MW
- Activation des capacités jusqu’à 20 jours au cours de l’hiver (1er novembre 2012 au 31 mars 2013)
- Fourniture du programme prévisionnel, la veille avant 18h
- Disponibilité sur au moins l’une des deux pointes journalières (8h-12h ou 18h-20h)

Source : Enerzine

vendredi 21 septembre 2012

The Next Big, Digital Economy Is In 'Smart Energy'


Guest post by Mary Turner, CEO of AlertMe
The energy market is undergoing a major transformation. It’s moving towards a so-called Smart Grid, which will not only manage supply and demand of energy more effectively, but also integrate new, lower-carbon sources of electricity. This sort of transformation comes with massive infrastructure investment, often influenced by government policy. That can be a good thing.
Smart meters are the essential end points of a Smart Grid connecting up the home, meaning a new meter connected directly to the utility. It collects up-to-date usage data and transmits it back to the utility for billing and it also allows the supplier to send data such as tariff information to the meter in the home.In Britain, which may be seeing the biggest move towards smart energy anywhere, this means the rollout of 43 million smart meters to 26 million homes by 2019, and in North America, conservative estimates predict around 95 million electricity smart meters alone by 2015.
But experience of other markets tells us that changes to infrastructure will not necessarily lead to a successful transformation.  The real magic only happens when we effectively combine infrastructure investment with customer innovation. Only then can the industry create compelling services at the right price, and ensure mass-market customer adoption.
Take the mobile market, which in the U.K. only achieved 7% penetration in 10 years from 1985 to 1995.  Operators saw this as a service for premium customers and the market lacked the vision or ambition to become a mass-market consumer service.  Then the network moved from analogue to digital in 1995 and the industry started to innovate with new customer propositions.  Pre-pay packages, more accessible handsets and huge marketing campaigns became the catalysts for a mass-consumer service driving adoption from 7%, to 46% by 1999.
Similarly, in fixed-line Internet access, dial-up achieved just 5% in the first eight years, modems were cumbersome to install, content was limited and no real choice of packages to suit the pocket.  All this changed in Britain when Freeserve introduced pay as you go, which catapulted dial-up services to the mass market.
It was the same for broadband in its early years — it was expensive, engineer-installed and confined to tech-savvy, high-end consumers.  However, in 2003 regulation to open up the BT network resulted in viable wholesale competition. Retail providers could now invest in the network and quickly innovated to develop affordable, self-install broadband products with mass-market appeal.
As a result, broadband prices plummeted from £30 to £15 ($47 to $24) a month in 2004 and the scale created allowed providers to invest further to provide today’s higher speeds and bandwidth to accommodate more sophisticated use. Penetration of broadband increased from 7% in 2003 to over 40% in the first quarter of 2006.  This led to further innovation, a huge amount of content and was the beginning of a now thriving e-commerce and digital economy.
Most recently, digital TV has transitioned in just five years, and as the broadcast network has been transformed, the content and TV hardware markets have helped to ensure consumer conversion to digital TV has achieved over 96%.
The combined transformation of our communications infrastructure over the last 18 years has acted as the platform for a whole new digital economy, beyond connectivity, of new services estimated to be worth $130 billion (with $72 billion in e-commerce alone) in revenues for Britain.  Today the U.K. has a much stronger business-to-consumer digital economy than other countries and a business-to-business ecommerce percentage of GDP, three times the global average.  This means every £1 spent in connectivity supports £5 in additional revenues for our economy, according to the research consultancy A.T. Kearney.
For the energy market too there are two fundamental parts to transforming this market – infrastructure AND customer innovation.  One is less effective without the other.
Connecting the eGeneration
Thanks to the efforts of the communications industry, today’s consumer is now part of the eGeneration – ‘smart’ in every way.  They are connected by the cloud to almost everything that matters to them – family and friends, work and school, banks and shops, government, the media and entertainment.  They are already connected to everything except their home, and the energy market is a big part of this disconnect.
It’s estimated that in Britain £11 billion ($17.6 billion) will be invested in the smart meter rollout.  But the market needs to maximize the return on its investment. Boston Consulting estimated that while 60% of the business case for smart meters can be made through operational efficiencies, a further 40% is consumption related.  We need to look at making consumer-friendly services that engage the customer, providing them with usage information, flexible pricing and easy tools that will help them to control their energy consumption. Such measures can help utilities to meet customer demand with fewer resources.This is a generation that’s time starved, cash limited and is used to instant access to services and information wherever they are.  So the energy market needs to provide these customers with greater visibility about energy use in their homes, and intelligent automation that makes homes more comfortable, more efficient, more convenient and smarter. With very high levels of broadband penetration and the increased adoption of smartphones, we can use the technology that consumers already have to inform and engage them to give them control in the palm of their hand.
This is where the real innovation begins.  To truly engage with the customer, the services utilities need to make sense for the customer, they need to be easy to adopt and fit in easily with their lifestyle.  It is not just about more accurate billing; it’s also about using the devices in the home to make life more efficient.
The new wave in the digital economy
Creating the smart home is a huge opportunity, but it’s an opportunity for more than just the energy sector. Industry analyst Strategy Analytics recently forecast that nearly 5 million broadband homes in the United Kingdom would have at least one smart home system by 2017, generating £1 billion (about $1.6 billion) in digital revenues.
This is a new wave in the digital economy, creating smarter homes and smarter customers. Cisco Trends 2011 predicted 15 billion connected devices by 2015. This so-called Internet of Things will create a unique environment for innovation.
If energy providers, device manufacturers and technology companies are able to grasp this opportunity to innovate, we will see rapid growth of the smart home.  It will be an opportunity for customers to benefit in many ways, for the energy sector to meet its commitments while getting a return on its investment and it is an opportunity to build the new digital economy.
Mary Turner is the CEO of AlertMe, a British company that provides utility monitoring services for the home. Prior to taking her current role in Feb. 2010, she was CEO of broadband provider Tiscali U.K. 

Source : Forbes