The ARPA-E program is one of the DOE’s lauded programs, which has managed to gain bipartisan support and avoid controversy. In contrast, the DOE’s loan guarantee program and battery grant programs allocated large funds to single companies, and when a few of those companies went bankrupt, the DOE received significant criticism.

The ARPA-E program, on the other hand, only gives grants of small — hundreds of thousands to single digit millions — amounts and doesn’t expect to get a return back. It’s funding for basic scientific research. The program also backs so-called “moonshots,” which are innovations that could be transformational, but are at a very early stage — a very small amount of these technologies will probably ever be commercialized. The folks at ARPA-E now say they’ve backed 285 projects for a total of about $770 million in funding.

There were fewer startups in the mix than I’ve seen in recent years. It’s a lot harder to be an entrepreneur in this space these days. Some of the more interesting sounding projects in this crop include:

• Energy beets: Say wha? A company called Plant Sensory Systems, has received a $1.8 million grant to engineer a beet with enhanced energy density that can be turned into biofuels, and which can also be grown with less water and fertilizer.
• Waste natural gas to fuel: A company called Ceramatec was granted $1.7 million to build a reactor that can convert natural gas unearthed at remote oil field sites into fuel in one step. This natural gas is usually flared off and wasted.
• Smart window coatings: Lawrence Berkeley National Labs will use a $3 million grant to low cost coatings for windows that will control light and heat.
• Portable building mapping tech: LBNL received another grant, this one for $1.9 million, to make a device that senses and maps the internal and thermal characteristics for a building. Using this technology, you can see where heat loss is occurring. Sounds like Essess.
• Cool roofs: Stanford University is looking to develop a low cost coating for roofs, buildings and cars that reflects sunlight and enables passive cooling. ARPA-E gave Stanford $400,000 to build the tech.
• Smart grid security modelling: The University of Illinois at Urbana-Champaign received a $1.5 million grant to create a modelling and analysis tools to make the smart grid more secure.
• Gas-based tech for high voltage power lines: The traditional way to control electricity over high voltage transmission lines is using silicon-based switches. GE’s Global Research division received a $4.1 million grant to work on a gas-based switch that can lower the cost of transmission lines, improve grid reliability, and help with clean power deployment.
• Super wires: A startup called Grid Logic is working on low cost and high temperature superconducting wires. ARPA-E gave the company a $3.8 million grant.
• Transmission line analytics: Pacific Northwest National Labs received a $1.6 million grant to develop analytics to find unused space on transmission lines and increase efficiency of the use of transmission lines by 30 percent.
• Big data grid collection: The University of California, Berkeley, along with the California Institute for Energy and Environment, have received $4 million to develop “micro” synchrophasors to collect real time grid data. Are these even smaller versions of the synchrophasors out there? Not sure, I’ll do some research on it.
• Water wing: Brown University will work on an “oscillating underwater wing” that can capture energy from flowing water in rivers and tides. They’ll control it with software. I feel like a lot of companies who make these design really nice ones, but the problem is in making sure it lasts years while being battered by water and the elements. Brown received $750,000 for this project.
• Fabric wind blades: GE has quite a few projects in here. Another one is a project to create wind blades made out of fabric stretched across a frame. GE says such blades could enable wind turbines to be “manufactured in sections and assembled on-site, enabling the construction of much larger wind turbines with higher efficiency and lower cost.”
• Energy from dust devils: Here’s a weird one (for @go2cleanbreak’s book). The Georgia Institute for Technology wants to use a $3.7 million grant to capture energy from wind vortices by harvesting a thin layer of hot air along the ground created by the sun. Like a manufactured, controlled dust devil. I don’t know what to say about that one.
• Mini mirror solar field: San Francisco’s own Otherlab is working on developing solar projects with small mirrors that will focus light onto towers. Usually these types of fields (like Ivanpah) use large mirrors.
• New Valley battery startup?: A startup called Alveo Energy won a $4 million grant for a battery for grid storage that will use Prussian Blue dye as the active material in the battery. They were founded in 2012, based in Palo Alto and their CEO is Colin Wessells, according to Google searches (they don’t have a website). If anyone knows more about this company, ping me.
• Magnetic energy storage: Here’s a new one. The Tai Yang Research Company wants to create a device that stores energy in superconducting cables, by increasing magnetic field strength of the cable.
• Solar fuel: The Georgia Institute of Technology received $3.6 million to build a solar reactor to produce solar fuel. Sounds like what Joule has been working on … by the way, whatever happened to them?
• Printed batteries: The Palo Alto Research Center got close to a million dollars to develop printing technology for lithium ion batteries

Image courtesy of Peyri, and rosmary.

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