Steven Chu steps down at U.S. Department of Energy, leaving a mixed legacy

Last week brought the widely expected news that Steven Chu will be stepping down as Secretary of the U.S. Department of Energy (DOE). Chu has been a hero to scientists and clean energy advocates, but on his watch the DOE has made some questionable decisions, particularly from a commercialization and business standpoint. That said, Chu has also laid the groundwork for a strong legacy of energy innovation – if those initiatives produce results, he may justly be regarded as one of the most important DOE Secretaries since the department was created in 1977.

Unfortunately for Chu and DOE, the name “Solyndra” will appear in the first paragraph of most appraisals of his term – the DOE’s ill-fated $535 million loan guarantee (client registration required) to the Silicon Valley solar panel maker became a rallying cry for opposition to the Obama administration’s clean energy investments. Other recipients of DOE loan guarantees and other largesse, including A123 Systems (client registration required), Beacon Power (client registration required), EnerDel, and Abound Solar (client registration required), have also filed for bankruptcy. While there was a case for deploying government funds when private investors largely stopped lending during the financial crisis, the DOE loan guarantee program mixed investments in reliable projects, like solar power plants using established technologies, with funds for firms like Solyndra that faced steep technical and market risks. It was highly likely that several would fail, but DOE either underestimated the risks or wasn’t well prepared for the political fallout (or some combination of both), and arguably hurt the cause of government support for new energy technologies – previously a point of bipartisan consensus.

Chu’s DOE also showed commercial naïveté in its claim that it could help bring 1 million electric vehicles to U.S. roads by 2015 – and President Obama personally cited Chu’s assurances in defending the administration’s focus on electric vehicles. While the DOE target included plug-in hybrids (PHEVs) like the Chevy Volt, as well as all-electric vehicles (EVs), only around 250,000 such vehicles will realistically be in operation in the U.S by the end of 2015 (see the report “Small Batteries, Big Sales: The Unlikely Winners in the Electric Vehicle Market” — client registration required). Anemic sales to date of PH/EVs also belie such optimism, and just before Chu stepped aside, DOE began publicly backing away from the goal – suggesting that DOE’s EV enthusiasm may not have been the best use of its resources.

What’s more, DOE has largely been on the sidelines of the most important energy story of Obama’s first term – the phenomenal boom in domestic gas and oil production, driven by technologies like hydraulic fracturing. To some extent that’s only right – by the time the technology (which had benefitted from DOE support in decades past) was ready for prime time, the industry hardly needed further help from DOE. However, given the impact this production will have on the energy and climate picture in the U.S., and the remaining technology and policy needs to help access these resources safely and make the best use of them, it’s surprising how little focus they’ve received (barely meriting a mention in Chu’s review of his term in his resignation letter).

Despite these stumbles, history may well look kindly on Chu’s tenure, because programs he’s championed have the potential to create a generation of impactful new technologies and keep the U.S. a center of innovation in energy. Through the network of 46 Energy Frontier Research Centers, and especially the new Advanced Research Projects Agency – Energy (ARPA-E), the DOE is funding research on really novel technologies with a breadth, depth, and purpose beyond its previous basic science efforts. ARPA-E, in particular, is well-positioned to help fill a void left by venture capitalists that are (wisely, by their financial standards) increasingly reluctant to invest in early-stage energy technologies. If these programs help shepherd along impactful energy technologies that that come to the market over the next decade, they’ll have a greater impact than even a successful Solyndra would have, and will validate Chu’s initiatives.

Given the ups and downs of Chu’s tenure, who should Obama tap to replace him? Some favor another academic, like Shirley Jackson of Rensselaer Polytechnic Institute, or Ernest Moniz of the MIT Energy Initiative, to continue to build DOE’s innovation efforts. Others argue that DOE’s commercial blind spot argues for a businessperson like Duke Energy CEO Jim Rogers. While a course correction is needed, and energy business acumen at DOE would be welcome, a utility executive may not be the best steward of Chu’s innovation legacy (and may sit uneasily atop what’s still largely a scientific agency). A business leader with more innovation experience could serve admirably – GE CEO Jeff Immelt has been floated, though seems unlikely to serve. Otherwise, given the controversies DOE has weathered and the need to defend its budget in an era of sequestration and discretionary spending cuts, a more seasoned politician might also be a wise choice to follow Chu. Someone like former (moderate) Republican governor and EPA administrator Christie Todd Whitman or past North Dakota Senator Byron Dorgan could serve to consolidate Chu’s gains in long-term innovation, but would still be inclined to pivot the agency more toward the pressing issues of the day.

Justin Bieber Problems: Electric Vehicle Makers Still at Odds on Charging Standards

A group of U.S. and German automakers demonstrated an electrical vehicle charging standard at Electric Vehicle Symposium 26 (EVS26) that used a single plug to support both AC charging (including ‘level 1″ at 120V and “level 2″ at 240V) and DC fast-charging. Ford, General Motors, Chrysler, Daimler, Volkswagen, BMW, Audi, and Porsche are all behind the new standard – which means they’re not behind the CHAdeMO DC fast-charging standard backed by Nissan and other Japanese automakers (or, for that matter, behind the separate DC charger offered by Tesla).

At stake is more than whether noted venture capitalist and chromed-out Fisker Karma owner Justin Bieber can plug in when he drops in on Elon Musk to talk investment strategies. Charging standards are widely, and rightly, seen as a key precondition for widespread market adoption. Issues of charging station availability and the resulting “range anxiety” are bad enough for would-be EV owners, without further doubts over whether or not the latest charging station will be compatible with their cars. Eventually good sense should prevail and send one approach the way of Betamax and the HD-DVD. In the meantime, the high cost of EVs is a bigger impediment, and >>the slow downward march of battery costs means that automakers have time to sort out their differences<< before EVs are ready for widespread adoption (see the report “Searching for Innovations to Cut Li-ion Battery Costs“).

Five Star Technologies folds its tents: When better isn’t good enough

We learned recently that metal ink developer Five Star Technologies has closed its doors, and former CEO Tim Fahey was good enough to speak with us about the decision to shut down operations. The company had developed a unique cavitation process for dispersing fine particles (see the April 20, 2009 LREJ – client registration required). When we last profiled Five Star, it was taking aim at solar cell metallization applications, with silver pastes for screen printing and silver inks for inkjet printing that enabled finer lines and features. Tim said the company concluded it lacked the resources to compete with leaders like DuPont, Heraeus, and Ferro in the silver paste market. Namely, Five Star was able to develop a paste that had comparable performance; but, without a significant technical advantage, entering the market was too daunting a task in the face of larger competitors’ superior sales, distribution, and manufacturing resources.

At the end of 2009, investors funded it for an additional year so it could try to apply its technology to another market: It focused on silver inks for printing of interconnects around the outer edges of touch screens. While Tim said it made some commercial headway, scoring a few hundred thousand dollars in revenues, it ultimately landed in the same dead end: Marginal technical improvements weren’t enough to displace incumbents like Asahi Chemical Research Laboratory.

Tim said, “In the end, I don’t think cavitation creates an ‘oh wow’ advantage.” His implied point is well-taken: For start-ups, a step change in performance is really needed to effectively go after large incumbent firms. Five Star’s IP has reverted to its parent, Cavitech Holding Company, which is negotiating licensing deals with former customers and partners. Clients interested can contact us for an introduction.

Splashy OLED TV products face practical challenges

Mitsubishi Electric exhibited some massive OLED displays, including a gaudy circular display, at the Consumer Electronics Show (CES) in the U.S. and Integrated Systems Europe (ISE) in 2011. Based on the company’s modular “Diamond Vision” technology, the devices combine a series of 384 mm × 384 mm panels (with 128 × 128 pixels on each) to create large-format but low-resolution displays. Elsewhere at CES, LG Display presented a [31″ OLED TV with HD resolution that it expects to offer commercially later this year. While OLEDs have stormed the market for mobile devices (especially those made by Samsung),  they’ve yet to break through for larger format displays – why?

For one, OLEDs’ perpetual bug-bear – durability – is a concern for products that need to outlast the brief two- to three-year lifetime of a mobile device. More specifically, there is a big problem with differential aging of the materials; since the blue emitters degrade in performance faster than the red or green ones, the color quality of the display can drop off over time (though algorithms can compensate for these shifts to some degrees).

There are also production challenges hampering large OLEDs, as well. The shadow masks used to pattern the organic light-emitting molecules over larger displays tend to bend and bow, which makes it difficult to pattern them precisely. What’s more, active matrix (AMOLED) displays require a backplane – the thin-film transistor (TFT) array that controls the display – to be made from low-temperature polysilicon (LTPS). As opposed to the amorphous silicon (a-Si) used for most displays, LTPS is difficult and costly to make over larger areas because it requires a laser annealing step.

Demonstration devices like those from LG Display show that such challenges can be overcome – but often at a cost, driven by tougher manufacturing processes and lower yields. As a result, it’s likely that the first affordable large OLEDs will be lower-resolution devices like Mitsubishi Electric’s – though even there, LCDs will remain a formidable incumbent for the foreseeable future.

RadTech 2010 attendees push for photovoltaics

We presented at the recent RadTech 2010 conference, a showcase for UV-curable coatings, inks, and adhesives. All technologies involved offer lower energy needs, faster throughput, lower volatile organic compound (VOC) releases, and/or lower-temperature operation by avoiding the need for heat-curing or long drying times. Many RadTech attendees were seeking new market opportunities for their technologies; and for many, solar headed their lists.

The photovoltaics section of the event featured a talk from Joshua Oliver of Sartomer, a division of oil giant Total, and a leading supplier of monomers, oligomers, and other raw materials for UV-curable products, including some used in solar applications. Joshua discussed the potential of UV-curable materials as encapsulant and barrier films, but explained that most UV-curable polymers can’t provide the barrier properties needed for solar applications. He added, however, that Sartomer found mixing UV-curable elements into a polymer similar to ethylene vinyl acetate (EVA) leads to a material that compares favorably to EVA in performance and durability after curing. Even so, UV-curable materials will have uphill battle to get into solar, however, unless they can eliminate the need for lamination altogether, as module manufacturers will be loath to add an additional curing tool to their lines.

Also on hand was transparent conductive film producer, Cambrios, which uses a UV-curable polymer as an overcoat to protect the silver nanowires that form its conductive layers. Teresa Ramos presented results showing that Cambrios could achieve sheet resistance as low as 50 ohm/sq with 96.6% light transmission, or 15 ohm/sq at 93.5% transmission, which signifies a performance improvement over incumbent transparent conductor indium tin oxide (ITO). Teresa noted that 10 ohm/sq to 20 ohm/sq is needed for inorganic thin-film PV users. However, when she discussed how Cambrios had achieved uniform properties over large areas – scaling up to large areas is one of the key challenges for non-active solar materials (see the report “Driving Down Solar Costs: Non-active Material Opportunities)” – the data were from films with 225 ohm/sq and 91% transmission. While Teresa was cagey in response to questions about its cost metrics (another critical factor for adoption) and commercialization plans, it appears that Cambrios still has some way to go before being able to address solar applications. That said, it remains a strong contender for transparent conductive films in display applications (see the March 22, 2010 LRNJ).

Some good, some bad in evaluation of U.S. National Nanotechnology Initiative

In late March, the U.S. President’s Council of Advisors on Science and Technology (PCAST) announced a report assessing the impact of the U.S. National Nanotechnology Initiative (NNI) since its formal launch in 2001. The report also makes recommendations for future changes.

Lux Research’s Director Michael Holman participated  in the Nanotechnology Advisory Working Group that drafted the report, which PCAST members presented to President Obama last month. While Working Group deliberations were confidential, the final report offers some insights into how nanotechnology leaders in the U.S. government, industry, and academia view the field today.

Overall, while nanotech is arguably in the trough of the hype cycle, support for nanotech still runs high in the U.S. Drawing on input from industry and government, the report recommends that the government boost support for the NNI – though it also suggests some changes be made.

Most significantly, it recommends government place less emphasis on basic research in favor of projects that help to bring that research to market. The suggestion echoes Lux Research’s observation that nanotechnology has undergone a phase change from discovery to commercialization (see the Introduction to The Nanotech Report, 5th Edition from 2007 – client registration required). While it calls for basic research to continue, the report also asks that “the NNI increase its emphasis on nanomanufacturing and commercial deployment of nanotechnology-enabled products.”

The document’s heart is in the right place on this issue, but its use of the misbegotten term “nanomanufacturing” could send policymakers off on the wrong path. In many cases, the barriers to commercialization – at least those that government can and should address – have less to do with developing appropriate manufacturing technology than helping technology developers (whether in academic labs, at start-ups, or in corporate R&D facilities) to learn how to integrate their inventions into practical applications. If that’s done well, the private sector can and will manage manufacturing scale-up (perhaps with financing assistance from federal loan guarantees). Thus, the government should place less emphasis on manufacturing and more on applications development and other so-called “translational research.” The report takes a more positive step toward in this direction in its call for “Signature Initiatives,” which include application-focused research programs in areas like solar energy or cancer treatment.

On the balance, the report makes a persuasive case that the NNI has helped to boost research in the physical sciences in the U.S. by supporting overall funding levels and fostering useful interdisciplinary collaborations through programs like the National Science Foundation (NSF) Nanoscale Science and Engineering Centers (NSECs). Given the importance of physical sciences research for looming challenges in areas from energy to disease, this aid is all to the good.

Nanotechnology still has considerable momentum – not among jaded business people perhaps, but at least in political and academic circles, and among the general population. Add to this the breadth of technologies it can bring under its umbrella, and it continues to make sense to use the NNI as a leading banner for the physical sciences – for now. In the long run, however, application-focused research should guide efforts like the mooted “Signature Initiatives,” encouraging researchers to cast a broader net in their search for solutions, rather than focusing on nano-enabled ones. As a result, the NNI should ultimately be scaled back to a smaller program focused on basic research at the nanoscale, while broader initiatives – outside the NNI and focused on key challenges – should lead application-oriented research.

Innovation Network Corporation of Japan seeks to foster open innovation in Japan

We recently met with Takao Inoue of the newly formed Innovation Network Corporation of Japan (INCJ) in Tokyo. Formed through the support of Japan’s government, INCJ aims to encourage development of emerging technologies, as well as the adoption of an “open innovation” model among Japanese corporations. The vision is to enable industrial giants from Sony to Toyota to develop new products more rapidly by accessing inventions from universities, start-ups or other large corporations. Inoue explained that INCJ has been given 90 billion yen ($1.0 billion) to invest, with commitments for up to 900 billion yen ($10.2 billion) over the next 15 years. The Japanese government committed to providing 90% of the funds, with the balance coming from private firms, such as domestic leaders like Panasonic and Tokyo Electric Power, and overseas player like General Electric. INCJ plans to pursue investments in “environment and energy, life sciences, electronics, machinery and components and advanced materials,” with additional areas possible in the future.

As part of its role, INCJ will serve as an early-stage venture capital (VC) or angel investor. It will provide funds to secure promising intellectual property from universities and government labs, and back start-ups and spin-outs – filling a gap in which traditional Japanese VCs have been unwilling to invest more than small sums. However, Inoue-san noted, INCJ’s mission isn’t limited to early-stage investments. It will also provide larger investments to fill capacity expansions and project finance needs – a role that’s missing in the West as much as Japan. Such projects require larger sums than VCs are willing to offer, or impose too much technological risk to entice traditional private equity investors.

It’s still early days for INCJ. The firm was established in June, and won’t make its first investments until early 2010. But clients should watch to see if it can maintain its political and private support, and succeed in bridging gaps in Japan’s existing financing model, which make the country poorly suited to fund emerging technologies in energy, environment and materials.

Rusnano aims to boost Russia’s economy with emerging technology – and not just nanotech

We recently attended the Rusnanotech 2009 conference in Moscow, a massive forum and exposition put on by Russian state-owned technology investment fund Rusnano.

The event opened with a flourish: Russia’s President Dmitri Medvedev gave an opening address, in which he announced his government’s firm intention to remake the Russian economy more innovative and technology-based. His vision was of a Russia in which emerging technologies in energy, information technology, infrastructure, and medicine played a stronger role. This vision would unfold even as the economic crisis that dealt such a blow to Russia’s resource extraction industries begins to abate.

“Our post-crisis economy must be based on knowledge, on new technology, not on the raw material potential of Russia,” Medvedev declared. Medvedev touted Rusnano’s plans to spend 318 billion rubles ($10.9 billion) through 2015 to help that vision become a reality. Also, the President didn’t shy away from citing what he views as the obstacles to high technology in Russia, including conservatism of incumbent firms — “business has not been proactive enough” — concerns about corruption, and the need for legal frameworks to support entrepreneurship and guarantee a long-term market for new technologies.

Medvedev and Rusnano’s CEO Anatoly Chubais both cited Rusnano’s goal of boosting the output of nano-enabled products in Russia to 900 billion rubles ($31 billion) — by which point we anticipate $2.5 trillion in nano-enabled products worldwide.

However, Rusnano takes a much broader view of its mission than its “nano-focused” brand would imply. Indeed, clients should view Rusnano’s role as supporting emerging technology in Russia in general, not just as what’s usually defined as “nanotechnology.”

Witness, for instance, its investment in polysilicon producer Nitol (see the May 1, 2008 LRSJ and September 10, 2009 LRSJ — client registration required). This will likely prove solid moves given the solar industry’s demand for low-cost polysilicon, and Nitol’s access to cheap electricity that can allow cost-effective production. But it doesn’t qualify as something that we, or most observers, would consider nanotech.

Walking the exhibition floor at the event, we spoke to a diverse range of firms seeking investments from Rusnano. Among them was the solar division of Konti, which offers bifacial crystalline silicon solar cells like those made by Sanyo (see the September 24, 2009 LRSJ — client registration required). Konti is seeking funds to expand from 5 MW of production to 60 MW by 2012.

Another firm seeking Rusnano investment was Russian Superconductor, a project of Atom Invest, the investment arm of Rosatom. The firm was using its parents’ support for work on superconductors for power cables and fault current limiter, much like those pursued by American Superconductor (see the June 3, 2009 LRPJ — client registration required).

All told, Chubais noted, Rusnano has approved €1.2 billion ($1.8 billion) worth of investment in 36 projects, which have pulled in a total of €2.1 billion ($3.1 billion) including other private investments.

There’s clearly some distance to go before Russia becomes a high-tech powerhouse, but its goal of 900 billion rubles of products is certainly achievable, especially under the broader umbrella of technologies Rusnano pursues. On the positive side of the ledger is the vast sums Rusnano deploys. It plans to invest €3 billion ($4.5 billion) through 2015. That has clearly attracted a lot of interest and activity in these technology areas. On the other hand, changing the business culture to a more entrepreneurial one will be a slow process, and excessive bureaucracy continues to gum up the works for innovation in Russia. Even for emerging technology events like Rusnanotech: One invited speaker at the event lamented the need to collect 20 different signatures just to get her travel expenses reimbursed.

Nonetheless, Russia’s commitment to emerging technologies looks real. President Medvedev emphasized, “we can’t just relax and give up on nanotech as global economy recovers, and go back to just supplying energy.” Clients should expect Russia to increasingly become a global player in areas like nanotech, solar, power, and medicine. The question is whether it will be a minor one, or whether it could ultimately rival major movers like the nations of Western Europe.

House and Senate bills kill DOE Energy Innovation Hubs

Earlier this year, U.S. Secretary of Energy Steven Chu proposed the creation of eight Energy Innovation Hubs across the country as a pillar for the Department of Energy (DOE) research program. The FY2010 DOE budget request summarizes: The purpose of the Hubs is to support cross-disciplinary research and development focused on the barriers to transforming energy technologies into commercially deployable materials, devices and systems. They advance highly promising areas of energy science and technology from their early stages of research to the point that the risk level will be low enough for industry to deploy into the marketplace. The DOE had proposed to allocate $280 million for Hubs in the areas of Solar Electricity; Fuels from Sunlight; Batteries and Energy Storage; Carbon Capture and Storage; Grid Materials, Devices, and Systems; Energy Efficient Building Systems Design; Extreme Materials; and Modeling and Simulation. The bill raised hope of additional funds that innovators could tap for developing and deploying energy technologies – but then it ran into Congress.

Both the House and Senate appropriations bills deny funding for most of the proposed Energy Innovation Hubs. The House bill (H.R.3183) denies funding for all but one of the proposed Hubs, allotting $35 million for the creation of one at the discretion of the DOE. The accompanying report (House Report 111-203) states that the House Appropriations Committee sees the Hubs as being redundant to the existing Energy Frontier Research Centers (EFRCs) and Advanced Research Projects Agency for Energy (ARPA-E) programs – even though the DOE has emphasized that the Hubs are meant to focus more on commercialization while the other programs focus on the basic science. The Senate bill (S.1436) provides funding for only three of the Hubs (Modeling and Simulation, Fuels from Sunlight, and Energy Efficient Building Systems Design), at reduced funding levels from what the DOE had requested. The House bill has passed, and the Senate bill, also expected to pass, is currently being debated. The ultimate funding levels will be decided in conference committee.

There’s been a great deal of recent hand-wringing about U.S. cleantech competitiveness, including eyebrows raised over the revelation that only 2% of the 3,500 proposals that have been submitted to ARPA-E are expected to get funding, and a group of 34 American Nobel prize winners writing to President Obama encouraging him to urge for more spending on energy research. It’s clear that with trillions already devoted to economic stimulus and bank bailouts (and big bills coming due for other priorities like healthcare), the U.S. Congress has spending fatigue and is looking to trim still-ambitious Obama administration requests in this area and others.

However, while still-greater boosts from the government could pay dividends for energy and environmental technologies, the U.S. government isn’t in danger of pulling the rug out from cleantech entirely – and Congress is hardly without justification for tapping the brakes. Between FY 2010 increases and stimulus allocations, the DOE’s energy budget could increase by as much as an order of magnitude, and the agency’s already struggling to spend what money it has (see the March 31, 2009 LRPJ and February 18, 2009 LRPJ). In that environment, moderating cleantech mania is hardly self-destructive – but politicians should be wiser about where they cut, if cut they must. Transformative innovation will ultimately be needed in many areas, but basic research in the U.S remains robust, and there’s less support for innovation that is struggling to make it to practical implementation. The U.S. government could get more bang for its buck in the near term by expediting commercialization through savvy translational programs like the energy Hubs.

Deutsche Asset Management unveils carbon counter to critical praise, but an uncertain public impact

Last week we rubbed elbows with energy and environment movers and shakers from academia, media, NGOs, business, and finance (well, mostly finance) at a swank luncheon in the Frank-Gehry-designed IAC Building on Manhattan’s west side. The wine was biodynamic, the meal was carbon-neutral, and the occasion was the launch of Deutsche Bank’s “Carbon Counter” in Times Square in New York, which shows the number of tons of carbon dioxide equivalents in the atmosphere – currently at some 3.6 trillion metric tons – racing ever higher. (Professor John Reilly of MIT, who helped design the counter, noted that its figure smooths over the well-known seasonal fluctuations in atmospheric CO2 concentrations, lest the clock ever be seen running backwards.) Kevin Parker, head of Deutsche Bank Climate Change Advisors fund, who conceived the project, explained that the display aims to dramatize the problem of rising CO2 levels and their impact on the climate, to “keep the conversation going,” and – not least – to “factor into the debate” ongoing in the U.S. Congress about carbon cap-and-trade legislation. Of course, any additional attention the clock draws to Deutsche Bank’s reputation for thought leadership in energy and environmental investments won’t dismay the firm, either.

Dignitaries ranging from economist and Earth Institute head Jeffrey Sachs to Fred Krupp of Environmental Defense Fund lined up to praise the project and express hope that it’d accelerate political action on climate change. While the prose grew a bit purple at times – Robert Socolow of Princeton University’s Carbon Mitigation Initiative opined that the clock might “promote planetary thinking… planetary identity” – Deutsche Bank’s effort is aimed at an important problem: public support for increasingly painful actions by governments to mitigate climate change. Government’s role includes positive actions like subsidizing renewable energy technologies and promoting structural changes like the smart grid, but also negative ones like imposing a price on carbon to account for its environmental impact – all of which require public support. The Carbon Counter is unlikely to swing popular opinion on its own (after all, the similarly-conceived U.S. National Debt Clock has failed in its mission spectacularly enough that its proprietors recently had to add another digit), but it can certainly help contribute to winning citizens’ attention and support.

Beyond the feel-good consciousness-raising, the size and seemingly inexorable rise of the carbon number the clock displays raises tough questions. The drivers of increased emissions are powerful, especially rising population and booming GDP in the developing world – and, as Jeffrey Sachs pointed out, “China and India are coal-based,” and likely to rely heavily on that most carbon-intense fuel as their economies advance. All told, even if “green” (or greening) developed nations hit their most ambitious renewable energy and energy efficiency goals, carbon levels in the atmosphere look likely to continue to rise – and the early effects of climate change are making themselves felt already. Thus, it’s not too soon for forward-thinking companies and investors to start devoting efforts not just to preventing climate change, but to preparing for it, as well – for instance, with technologies like advanced desalination or engineered drought-resistant crops that can aid regions newly parched by shifting weather patterns. (Indeed, mitigating the impact of the climate change is part – albeit a quieter one – of the mandate of Deutsche Asset Management’s climate change investment.) Most politicians and environmentalists have shied away from this suggestion, with its aura of defeatism, but the debate is likely to come around more and more to preparation in coming years.