
PLI: Lately, we've been hearing a lot about smart grid technology? What exactly is it?
PETER HÉBERT: "Smart grid" has definitely become the topic du jour in
both Silicon Valley and Washington, DC. One of our portfolio companies
Lux Research—which analyzes energy technologies on behalf of large
corporations and hedge funds—defines the smart grid as a “two-way
real-time network connecting distributed generation, distributed
storage, and distributed intelligence to increase grid reliability and
enable green technologies such as wind turbines and plug-in hybrid
vehicles." Smart grid technologies will help modernize the electrical
power grid to support increasing demand, more intermittent renewable
energy as well as increase overall energy efficiency. This is a big
deal—Lux Research expects the smart grid to grow from a $2.7 billion
market today to $4.8 billion in 2013—that represents an 11.8% compound
annual growth rate (CAGR).
PLI: Can you give an example of smart grid technology?
PETER HÉBERT: Sure. First it's valuable to take a step back and
understand our current electrical power infrastructure. Today's power
grid is a one-way transmission and distribution network that allows
utilities and other generation companies to deliver power to
residential, commercial and industrial customers. Much of our grid
dates back to the days of Edison—more than 50% of the transformer
assets are over 40 years old! The aging grid can't keep up with
ever-increasing electricity demands. If the infrastructure fails during
periods of peak demand, we see blackouts—like those that swept the
Northeast in the summer of 2003 and knocked out New York City's
electricity. Replacing or adding additional power lines is
prohibitively expensive, so utilities are looking for alternative ways
to deal with peak demand—particularly in the summer.
Smart grid technologies fall into three broad categories:
advanced metering infrastructure (AMI), networking systems, and
software. A smarter grid infrastructure can help integrate renewable
generation sources (like wind and solar) and in the long run, smart
grid technologies will help utilities expand to more customers (such as
plug-in electric vehicle drivers). At Lux Capital, we've made
investments in several technologies that power a smarter and more
efficient grid. The smart grid will also enable both utilities and
energy users to better understand and control power usage. Demand
response systems can help mitigate blackouts despite old power lines,
and connects distributed storage and generation to the grid. Real-time
energy information and time-of-use pricing can help consumers make
better decisions—for example running a load of laundry when electricity
prices might be cheapest late at night.
PLI: Can you give us a brief history of the technology?
PETER HÉBERT: As I said earlier, smart-grid is not one
technology, but rather the combination of a number of products and
technologies in hardware, software and networking. Over the past few
years, utilities and local governments have been aggressively building
out smart-meter infrastructure. The first step to enabling a smarter
grid is upgrading meters for enhanced data capabilities, including
two-way meters that read electricity flow in both directions — from the
utilities to the customers, and vice versa. Around 20 million smart
meters are already installed worldwide and many more are on the way.
Based on announced and likely installation programs (and assumption of
meter costs), Lux Research forecasts that the smart meter hardware
segment alone will be a $2 billion/year business in the next five
years.
PLI: How committed is the federal government to deployment of the technology and what steps is it taking to promote it?
PETER HÉBERT: In short—very committed. There has been huge government
support and financing driving the deployment of the smart grid. Power
outages and power quality disruptions cost U.S. businesses roughly
$100+ billion per year. The
Energy Independence and Security Act of 2007
mandates the deployment of smart-grid technologies. The recent $787
billion economic stimulus package included $4.5 billion for R&D,
pilot projects and federal matching funds for the Smart Grid Investment
Program to modernize the electricity grid. It's not just in the
U.S.—the European Union has also formally promoted smart-grid
technologies.
PLI: Are there any states, local governments or other communities that are already successfully using a smart grid?
PETER HÉBERT: Many utilities, as well as local and regional
governments, have designed programs to roll out smart meters to enable
the shift. Lux Research identified 147 such programs planned in the
next 10 years worldwide, which would outfit global power grids with
over 90 million smart meters in 2013 — and reach roughly 150 million 10
years from now. As an example, last month Florida's state utility
Florida Power & Light and several corporate partners announced a
state-wide smart grid-initiative, anticipated to cost upwards of $700
million.
Other utilities that have already announced major smart grid
initiatives include PG&E, Nevada Power, San Diego Gas &
Electric, Southern Maryland Electric Cooperative, Southern California
Edison, Tampa Electric, Tennessee Valley Authority, Ontario Power
Authority, ISO New England, PJM Interconnection, Toronto Hydro and
ENEL. As part of these announced installation programs, about $28
billion of investments (government and private) have already been
committed.
PLI: What companies are considered the “key players" in smart grid technology?
PETER HÉBERT: Some of the major smart grid pure-plays include
public companies like Comverge (COMV), Echelon (ELON), EnerNOC (ENOC)
and Itron (ITRI), as well as venture-backed start-ups like Silver
Spring Networks, GridPoint, Trilliant and eMeter. Technology giants
like IBM (IBM), Honeywell (HON), GE (GE) and Cisco (CSCO) also have
major initiatives underway.
The biggest differentiator among smart-grid companies today is not
rooted in technology, as much as in their business strategies.
Companies like EnerNOC are focused on grid reliability for utilities,
while firms like Comverge are targeting commercial and industrial
customers that are trying to reduce their energy consumption.
PLI: What are some of the obstacles to a successful deployment of smart grid technology?
PETER HÉBERT: There are a plethora of different technology approaches
to upgrading the grid, but the principal obstacles to successful
deployment are not technical. Some major obstacles include future
decisions on tax incentives, decoupling, and time-of-use pricing. While
one driver for this increase on the utility side is a desire to
decrease the number of blackouts, the conservation aspect serves a
headwind to adoption. Many generators are paid by the megawatt-hour
produced, and thus don't have a direct incentive to conserve. In fact,
Lux Research has heard from many sources (including the CEO of a major
U.S. utility) that utilities are getting paid less due to demand
response and smart metering.
The bottom line: Whether or not utilities ever believe energy
conservation is in their best interest, in the near term their focus
will be on reliability. In the long run, smart grid technologies will
likely help utilities expand to more customers, such as drivers of
electric cars. At a recent conference I attended, one large energy
company CEO said that he predicted the electric car would be the air
conditioner of the 21st century for utilities.
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