IPCC cities conference tackles gaps between science and climate action on the ground



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The IPCC’s first cities conference revealed the challenges in bridging the gaps between scientific knowledge and policy practice, and between cities in developed and developing nations.
Cities IPCC/Twitter

Jago Dodson, RMIT University

Some 600 climate scientists, urban researchers, policymakers and practitioners attended the International Panel on Climate Change’s (IPCC) first ever conference on cities last week. Hosted in Edmonton, Canada, it was organised as a forum to share knowledge and advice in support of the sixth IPCC Assessment Report (AR6) due in 2021.

The significance of a UN-organised global scientific conference on climate change and cities should not be underestimated. Urbanisation has been a United Nations concern since 1963. Policy attention strengthened in the 1970s when the UN Habitat agency was established. This focus was redoubled in the mid-2000s when it was reported that more than half of the global population was now urban.

Climate change has been a topic of UN action since 1988, with policy attention intensifying in the late 1990s and mid-2010s. Appreciation has since grown that with 55% of the world’s people now living in cities, this is where where efforts to mitigate and adapt to climate change must be focused.




Read more:
This is why we cannot rely on cities alone to tackle climate change


A collision of science, practice and politics

By venturing onto urban terrain the IPCC faces some interesting scientific questions. To a large degree biological or physical systems can be studied as objective phenomena that behave according to discoverable and predictable patterns. Carbon dioxide objectively traps solar radiation leading to climatic warming; biological species die at temperatures above their tolerance.

By contrast cities are riven with historical, social, economic, cultural and political dynamics. The theoretical and conceptual frames that scientists apply to cities are subject to many biases.

We certainly can calculate the emissions a city produces and chart the likely impacts on it from a changing climate. But the reasons why a city came to emit so much and how it responds to the need to reduce emissions and adapt to impacts are highly contingent. Objective validation and verification are difficult. Identifying causality and forward pathways is very difficult.

There is also a vast divide between the physical and social science of cities and the policymakers and practitioners who shape urban development. Research shows that most urban professionals simply do not read urban science. Instead they draw on practice knowledge acquired from peer practitioners via an array of non-scientific channels and networks.

These difficulties were observable at the IPCC cities conference. It was scientific in purpose but a subtle politics was at play. Rather than being convened by a scientific body, the conference was co-ordinated as an instrument of the world’s national polities and the IPCC, organised by a mix of UN organisations and NGO networks, and sponsored by a local, provincial and national government.

Fewer than two-thirds of delegates were scientists; the remaining 40 per cent were policy officials and practitioners. The problem of connecting scientific and practice knowledge was often on display.

Many cities have accepted the clear scientific evidence on climate change and accompanying global targets. These cities are striving at the local scale to cut emissions and adapt to changing climate patterns. For many, their main need is for knowledge of practical policies and programs, rather than more evidence of climate change impacts or mitigation technologies.

Often these cities are racing far ahead of slow and certain science. They are sharing practical experience of mitigation and adaptation strategies via self-organising peer-city networks. Finding ways to link inventive but unsystematic practice knowledge with the formal peer-reviewed processes of orthodox science will be a critical task for climate change scientists and policymakers.




Read more:
How American cities & states are fighting climate change globally


Policymakers are also grappling with how to implement global agreements within complex international arrangements. There face myriad tiers of national, regional, city and local governance, involving a plethora of discrete public, private and civic actors.

For this group, their priorities at the IPCC cities conference concerned policy processes and institutional design, political commitment and implementation instruments. Their needs are for policy, institutional and political science as much as for further scientific detail on climate change.

What did these encounters reveal?

The conference generated many fascinating insights. One major theme was the question of informality.

Many cities beyond the developed world are weakly governed. Multiple dimensions of urban life, including housing and infrastructure, are organised via informal institutions. Achieving effective action in these circumstances is a considerable policy problem.

A related problem is the gross geographical imbalance in scientific effort and focus on urban climate questions. Most research focuses on the cities of the developed West. And most of those are comparatively well resourced to respond to climate change.

In contrast, the cities of the developing world lack a systematic data and research base to enable effective and timely climate action. Yet these are the cities where many of the most severe climate impacts will be felt. Resolving this inequity is a fundamental international scientific challenge, as is growing the capacity to build a better evidence base.

Another question the IPCC needs to navigate is the boundary between science and politics in urban climate policy. During conference plenaries, the moderator — a former city mayor — excluded questions about specific political representatives’ stances on climate change according to apolitical IPCC rules. Yet questions about the effects on cities of neoliberalism were deemed permissible.

Urban scientists will require an especially nuanced framing of their research agenda if they are to address the very material politics of urban climate policy via theoretical abstraction alone.




Read more:
While nations play politics, cities and states are taking up the climate challenge


The conference also provided some memorable highlights. William Rees, the originator of ecological footprint theory, lambasted delegates for not adequately appreciating the absolute material limits to resource exploitation. And the youth delegates received a standing ovation as the cohort who will be grappling with urban climate effects long after their older peers have departed.

William Rees explains the origins of the ecological footprint.

An agenda for urban climate action

The conference released a research agenda. This outlines the urgent need for inclusive and socially transformative action on climate change, improved evidence and information to support climate responses, and new funding and finance mechanisms to make this possible. It’s a very high-level guide for climate and urban scientists seeking to better understand climate change impacts on cities.

The conference appears to have met the IPCC’s needs to compile and review a large volume of scientific and practice insight for its assessment reporting. Whether it will have a wider effect on climate policy and action in cities remains unclear.

The ConversationThe participating scientists and practitioners certainly shared a general commitment to advancing the urban climate agenda. But it remains uncertain whether methodical scientific processes will be timely enough to meet the accelerating and expanding demands of urgent urban climate action.

Jago Dodson, Professor of Urban Policy and Director, Centre for Urban Research, RMIT University

This article was originally published on The Conversation. Read the original article.

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The science of landslides, and why they’re so devastating in PNG



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A magnitude 7.5 earthquake took place on February 25, 81km southwest of Porgera, Papua New Guinea.
US Geological Survey

Benjy Marks, University of Sydney

A magnitude 7.5 earthquake struck the Southern Highlands region of Papua New Guinea on February 25, 2018. This was followed by a series of aftershocks, producing widespread landslides that have killed dozens and injured hundreds. The same landslides have cut off roads, telecommunications and power to the area.

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The PNG government has declared a state of emergency in the region. There is growing concern over several valleys that have been dammed by landslides and are beginning to fill with water – now ready to collapse and surge downstream, directly towards more villages.

Why is Papua New Guinea so susceptible to landslides? It’s a combination of factors – steep terrain, earthquakes and aftershocks plus recent seasonal rains have created an environment that is prone to collapse.




Read more:
Five active volcanoes on my Asia Pacific ‘Ring of Fire’ watch-list right now


How land becomes unstable

The Earth around us is generally pretty stable, but when the ground shakes during an earthquake it can start to move in ways we don’t expect.

Pressure changes during an earthquake create an effect in the soil called liquefaction, where the soil itself acts as a fluid.

When wet soil is exposed to physical pressure, other physical changes take place.

When lots of water is present in the soil, as is the case now during the monsoon season in Papua New Guinea, liquefaction can happen even more easily.

When liquefaction occurs, the earthquake creates changes due to friction. Imagine a visit to the greengrocer, where an accidental bumping of a carefully stacked pile of apples can cause cause them all to suddenly collapse. What was holding the pile together was friction between the individual apples – and when this disappears, so does the pile.

In an earthquake, two tectonic plates slip past one another deep underground, rubbing together and cracking the nearby rocks. The effects of this movement up at the surface can vary depending on the nature of the earthquake, but one feature is fairly common: small objects bounce around. The sand grains just below the surface do the same thing, but a bit less excitedly. A few metres down, grains could be bouncing around just enough to lose contact with each other, removing the friction, and becoming unstable.

A 2012 landslide in the southern highlands of Papua New Guinea.
dfataustralianaid/flickr, CC BY

Things are normally stable because they’re sitting on top of something else. When that support suddenly disappears, things tend to fall down – this is the classic dodgy folding chair problem experienced by many.

In engineering, we call this “failure” – and in the building industry it usually occurs immediately before the responsible engineer receives a call from a lawyer. Mechanically, this failure happens when the available friction isn’t enough to support the weight of the material above it.




Read more:
Explainer: after an earthquake, how does a tsunami happen?


When soil acts like fluid

Once a slope fails, it starts to fall downhill. If it really slides, then we’re back to the same situation of grains bouncing around. Now, none of the grains are resting against each other, and the whole thing is acting like a fluid.

A couple of interesting things happen at this point. First, as the grains are bouncing around, small particles start to fall through all the newly formed holes that have opened up. This occurs for the same reason that you find all the crumbs at the bottom of your cereal box, and all of the unpopped kernels at the bottom of your bowl of popcorn. Once these smaller fragments accumulate at the bottom of the flowing landslide, they can help it slide more easily, accelerating everything and increasing its destructive power.

Second, landslides typically flow faster at the surface than below, so as large particles accumulate at the top they are also the ones moving the fastest, and they start to collect at the front of the landslide. These large particles, often boulders and trees, can be incredibly damaging for any people or structures in their path.

Simulation of a landslide impacting a structure.
Benjy Marks/USyd

The image above shows a laboratory simulation of a landslide flowing down a slope and hitting a fixed wall. The spherical particles are coloured by size (small is yellow; large is blue). Data from these sorts of studies can help predict the forces that an object will feel if it gets hit by a landslide.

Watching and waiting

These complex dynamics mean that we really need to know a lot about the geography and geology of a particular slope before any kind of reliable prediction could be made about the behaviour of a particular landslide.

In the remote areas of Papua New Guinea, accumulating this data at every point on every slope is a tough challenge. Luckily, huge advancements have recently been made in remote sensing, so that planes and satellites can be used to extract this vital information.

Using sophisticated sensors, they can see past foliage and map the ground surface in high resolution. As satellites orbit quite regularly, small changes in the surface topography can be monitored. Scientists hope that by using this information, unstable regions that haven’t yet failed can be identified and monitored.




Read more:
Controversial artist Elizabeth Durack gave us a sensitive insight into the lives of Papuan women


Papua New Guinea is located on an active fault line and has had nine major earthquakes in the past five years. Combined with the often remote and steep terrain, together with a monsoon season that delivers repeated heavy rainfall events, it is a particularly active area for landslides to develop.

The ConversationThe dry season in Papua New Guinea will not arrive until June. During the current wet season we may see even more slopes fail due to destabilisation by the recent earthquakes.

Benjy Marks, Lecturer in Geomechanics, University of Sydney

This article was originally published on The Conversation. Read the original article.

As China flexes its muscles in Antarctica, science is the best diplomatic tool on the frozen continent


Adrian McCallum, University of the Sunshine Coast

Science has always drawn people and nations to Antarctica. But territorial claims and political tensions are also part of the history of that continent.

China is investing heavily in infrastructure and capability in Antarctica with research stations, airfields, field camps and plans for more. Science must continue to play a pivotal role in easing territorial tensions, as interest in Antarctica increases.


Read more: How China came in from the cold to help set up Antarctica’s vast new marine park


A brutal scientific history

Some argue that Captain Robert Scott and his team perished on their infamous return journey from the South Pole because of their dogged determination to haul 15kg of geological specimens.

Science has always nestled alongside the dominant motivation of territorial claims. But in Antarctica, it has evolved as a tool of diplomacy between nations, as a means to suppress tensions about national claims to the land.

This tension is not new. It was during his 1929–31 expedition that Sir Douglas Mawson claimed what is now the Australian Antarctic Territory (AAT) as British sovereign territory, with sovereignty eventually being transferred to Australia in 1936.

Australia’s National Antarctic Research Expeditions (ANARE), formalised in 1947, were not established for scientific reasons. Rather, they were meant to support our territorial claims and enable investigation of valuable mineral and marine resources located within the AAT.

A recent event in Hobart held by the Australian Academy of Science, examining the future of antarctic science was underscored by such themes.

A time of increased tensions

In their 2016 book, The Scramble for the Poles, academics Klaus Dodds and Mark Nuttall suggest that the planting of a Russian flag beneath the North Pole in 2007 precipitated a new scramble for resources in the polar regions.

In their view, there is an ongoing and under-discussed unease among Antarctic players when it comes to territory. This is felt particularly keenly by countries that have publicly reserved their right to make a future Antarctic claim (such as the United States and Russia), and those that have made no such claim, nor reserved such a right (such as China).

Australia is one of the original seven Antarctic claimants; we claim 42% of the continent. Our actions in Antarctica are pivotal as we grapple with increasing interest in the continent from assertive states such as China.

In a Special Report to the Australian Strategic Policy Institute in 2017, Anne-Marie Brady of the University of Canterbury outlined three stations, three airfields and two field camps that China has in the AAT. She also noted China’s intention to build a fourth station on King George Island, with plans for a fifth station for the Ross Sea region.

Only weeks ago, Brady released a book, China as a Polar Great Power that further examines the game changing nature of China’s growing strength at the poles.

This power has grown, she argues, thanks to the country “investing more in capacity than any other nation”. This includes investment in BeiDou, China’s own global GPS network, which will enhance capability for the Chinese military.

What is Australia doing about this?

Australia is emerging from a long period of under-investment in Antarctica to slowly address this geopolitical situation.

In 2012, the US released an examination of its need to renew its infrastructure and logistical capability in Antarctica. In 2016, the Australian Antarctic Division released its own Australian Antarctic Strategy and 20 Year Action Plan.

These documents explain Australia’s future role in Antarctica and outline the measures we need to implement to retain our role as an Antarctic leader. These measures include things such as the re-establishment of our overland traverse capability, an upgrade of our ageing Antarctic stations and the investigation of year-round aviation links.

Progress is being made. Australia’s newest icebreaker was recently named and the first steel was cut in June 2017. A Modernisation Taskforce has been established.

Australia’s new icebreaker will be called RSV Nuyina.
Australian Antarctic Division/Damen/DMS Maritime/Knud E Hansen

Without these vital infrastructure and operational assets, we lose the ability to conduct science across our territorial claim. If we lose this, we can no longer wield science as a valuable diplomatic tool.

Science as a bridge builder

Science has long served as a bridge builder in Antarctica, but how long can it sustain this role?

The importance of ongoing scientific collaboration between Australia and China in Antarctica has been discussed.

It is generally asserted that the capacity of science to serve as a form of “soft power” diplomacy is sound and that sovereignty can best be sustained by deploying a continuous and substantial scientific program.


Read more: Revenge served cold: was Scott of the Antarctic sabotaged by his angry deputy?


But, although Antarctica is considered “a reserve for peace and science” under International governance, the robustness of the Antarctic Treaty too is often discussed. Contemporary media continues to illustrate concerns over our claim in Antarctica.

The Chief of the Australian Defence Force spoke recently on such matters in Washington and a colleague and I are currently examining the implications for Australian Defence policy of other states’ assertive actions in Antarctica.

The ConversationScience must continue to play a pivotal role in sustaining peace in Antarctica so that alternative tools need not be called upon.

Adrian McCallum, Lecturer in Science and Engineering, University of the Sunshine Coast

This article was originally published on The Conversation. Read the original article.

The Great Barrier Reef can repair itself, with a little help from science



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How the Great Barrier Reef can be helped to help repair the damaged reef.
AIMS/Neal Cantin, CC BY-ND

Ken Anthony, Australian Institute of Marine Science; Britta Schaffelke, Australian Institute of Marine Science; Line K Bay, Australian Institute of Marine Science, and Madeleine van Oppen, Australian Institute of Marine Science

The Great Barrier Reef is suffering from recent unprecedented coral bleaching events. But the answer to part of its recovery could lie in the reef itself, with a little help.

In our recent article published in Nature Ecology & Evolution, we argue that at least two potential interventions show promise as means to boost climate resilience and tolerance in the reef’s corals: assisted gene flow
and assisted evolution.

Both techniques use existing genetic material on the reef to breed hardier corals, and do not involve genetic engineering.

But why are such interventions needed? Can’t the reef simply repair itself?

Damage to the reef, so far

Coral bleaching in 2016 and 2017 took its biggest toll on the reef to date, with two-thirds of the world’s largest coral reef ecosystem impacted in these back-to-back events. The consequence was widespread damage.

Bleached corals on the central Great Barrier Reef at the peak of the heat wave in March 2017. Most branching corals in the photo were dead six months later.
Neal Cantin/AIMS, CC BY-ND

Reducing greenhouse gas emissions will dampen coral bleaching risk in the long term, but will not prevent it. Even with strong action to tackle climate change, more warming is locked in.

So while emissions reductions are essential for the future of the reef, other actions are now also needed.

Even in the most optimistic future, reef-building corals need to become more resilient. Continued improvement of water quality, controlling Crown-of-Thorns Starfish, and managing no-take areas will all help.

But continued stress from climate change – in frequency and intensity – increasingly overwhelms the natural resilience despite the best conventional management efforts. Although natural processes of adaptation and acclimation are in play, they are unlikely to be fast enough to keep up with any rate of global warming.

So to boost the reef’s resilience in the face of climate change we need to consider new interventions – and urgently.

That’s why we believe assisted gene flow and assisted evolution could help the reef.

Delaying their development could mean that climate change degrades the reef beyond repair, and before we can save key species.

What is assisted gene flow?

The idea here is to move warm-adapted corals to cooler parts of the reef. Corals in the far north are naturally adapted to 1C to 2C higher summer temperatures than corals further south.

This means there is an opportunity to build resistance to future warming in corals in the south under strong climate change mitigation, or to decades of warming under weaker mitigation.

There is already natural genetic connectivity of coral populations across most of the reef. But the rate of larval flow from the warm north to the south is limited, partly because of the South Equatorial Current that flows west across the Pacific.

The South Equatorial Current splits into the north-flowing Gulf of Papua Current and south-flowing East Australian Current off the coast of north Queensland. This means coral larvae spawned in the warm north are often more likely to stay in the north.

So manually moving some of the northern corals south could help overcome that physical limitation of natural north-to-south larval flow. If enough corals could be moved it could help heat-damaged reefs recover faster with more heat-resistant coral stock.

We could start safe tests at a subset of well-chosen reefs to understand how warm-adapted populations can be spread to reefs further south.

These two-year old corals reared in AIMS’s National Sea Simulator are hybrids between different species of the genus Acropora. They are the results of artificial selection under experimental climate change and show tolerance to prolonged heat stress expected in the future.
Neal Cantin/AIMS, CC BY-ND

What is assisted evolution?

While assisted gene flow may be effective for southern or recently degraded reefs, it will not be enough or feasible for all reefs or species. Here, we argue that assisted evolution could help.

Assisted evolution is artificial selection on steroids. It combines multiple approaches that target the coral host and its essential microbial symbionts.

These are aimed at producing a hardier coral without the use of genetic engineering. Experiments at the Australian Institute of Marine Science are already making progress, with results yet to be published.

First, evolution of algal symbionts in isolation from the coral host has been fast-tracked to resist higher levels of heat stress. When symbionts are made to reengage with the coral host, benefits to bleaching resistance are still small, but with more work we expect to see a hardier symbiosis.

Secondly, experiments have created new genetic diversity of corals through hybridisation and researchers have selected these artificially for increased climate resilience.

Natural hybridisation happens only occasionally on the reef, so this result gives us new options for climate hardening corals using existing genetic stocks.

The danger of doing nothing?

The right time to start any new intervention is when the risk of inaction is greater than the risk of action.

Assisted gene flow and assisted evolution represent manageable risk because they use genetic material already present on the reef. The interventions speed up naturally occurring processes and do not involve genetic engineering.


Read more: Back-to-back bleaching has now hit two-thirds of the Great Barrier Reef


These interventions would not introduce or produce new species. Assisted gene flow would simply enhance the natural flow of warm-adapted corals into areas on the reef that desperately need more heat tolerance.

Risk of increasing the spread of diseases may also be low because most parts of the Reef are already interconnected. A full understanding of risks is an area of continued research.

The ConversationThese are just two examples of new tools that could help build climate resilience on the reef. Other interventions are developing and should be put on the table for open discussion.

Ken Anthony, Principal Research Scientist, Australian Institute of Marine Science; Britta Schaffelke, Research Program Leader – A Healthy and Sustainable Great Barrier Reef, Australian Institute of Marine Science; Line K Bay, Senior Research Scientist and Team Leader, Australian Institute of Marine Science, and Madeleine van Oppen, Marine molecular ecologist, Australian Institute of Marine Science

This article was originally published on The Conversation. Read the original article.

Climate change has changed the way I think about science. Here’s why



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Science is a human approach to understanding the world.
Nitirak Rakitiworakun/shutterstock

Sophie Lewis, Australian National University

I’ve wanted to be a scientist since I was five years old.

My idea of a scientist was someone in a lab, making hypotheses and testing theories. We often think of science only as a linear, objective process. This is also the way that science is presented in peer reviewed journal articles – a study begins with a research question or hypothesis, followed by methods, results and conclusions.

It turns out that my work now as a climate scientist doesn’t quite gel with the way we typically talk about science and how science works.

Climate change, and doing climate change research, has changed the way I see and do science. Here are five points that explain why.


Read more: Australia needs dozens more scientists to monitor climage properly


1. Methods aren’t always necessarily falsifiable

Falsifiability is the idea that an assertion can be shown to be false by an experiment or an observation, and is critical to distinctions between “true science” and “pseudoscience”.

Climate models are important and complex tools for understanding the climate system. Are climate models falsifiable? Are they science? A test of falsifiability requires a model test or climate observation that shows global warming caused by increased human-produced greenhouse gases is untrue. It is difficult to propose a test of climate models in advance that is falsifiable.

Science is complicated – and doesn’t always fit the simplified version we learn as children.
FoxyImage/shutterstock

This difficulty doesn’t mean that climate models or climate science are invalid or untrustworthy. Climate models are carefully developed and evaluated based on their ability to accurately reproduce observed climate trends and processes. This is why climatologists have confidence in them as scientific tools, not because of ideas around falsifiability.

2. There’s lots of ways to interpret data

Climate research is messy. I spent four years of my PhD reconstructing past changes in Australian and Indonesian rainfall over many thousands of years. Reconstructing the past is inherently problematic. It is riddled with uncertainty and subject to our individual interpretations.

During my PhD, I submitted a paper for publication detailing an interpretation of changes in Indonesian climates, derived from a stalagmite that formed deep in a cave.

My coauthors had disparate views about what, in particular, this stalagmite was telling us. Then, when my paper was returned from the process of peer review, seemingly in shreds, it turns out the two reviewers themselves had directly opposing views about the record.

What happens when everyone who looks at data has a different idea about what it means? (The published paper reflects a range of different viewpoints).

Another example of ambiguity emerged around the discussion of the hiatus in global warming. This was the temporary slowdown in the rate of global warming at the Earth’s surface occurring roughly over the 15 year period since 1997. Some sceptics were adamant that this was unequivocal proof that the world was not warming at all and that global warming was unfounded.

There was an avalanche of academic interest in the warming slowdown. It was attributed to a multitude of causes, including deep ocean processes, aerosols, measurement error and the end of ozone depletion.

Ambiguity and uncertainty are key parts of the natural world, and scientific exploration of it.

3. Sometimes the scientist matters as well as the results

I regularly present my scientific results at public lectures or community events. I used to show a photo depicting a Tasmanian family sheltering under a pier from a fire front. The sky is suffused with heat. In the ocean, a grandmother holds two children while their sister helps her brother cling to underside of the pier.

After a few talks, I had to remove the photo from my PowerPoint presentation because each time I turned around to discuss it, it would make me teary. I felt so strongly that the year we were living was a chilling taste of our world to come.

Just outside of Sydney, tinderbox conditions occurred in early spring of 2013, following a dry, warm winter. Bushfires raged far too early in the season. I was frightened of a world 1°C hotter than now (regardless of what the equilibrium climate sensitivity turns out to be).

At public lectures and community events, people want to know that I am frightened about bushfires. They want to know that I am concerned about the vulnerability of our elderly to increasing summer heat stress. People want to know that, among everything else, I remain optimistic about our collective resilience and desire to care for each other.


Read more: Distrust of experts happens when we forget they are human beings


Communicating how we connect with scientific results is also important part of the role of climate scientists. That photo of the family who survived the Tasmanian bushfire is now back in my presentations.

4. Society matters too

In November 2009, computer servers at the University of East Anglia were illegally hacked and email correspondence was stolen.

A selection of these emails was published publicly, focusing on quotes that purported to reveal dishonest practices that promoted the myth of global warming. The “climategate” scientists were exhaustively cleared of wrongdoing.

On the surface, the climategate emails were an unpleasant but unremarkable event. But delving a little deeper, this can be seen as a significant turning point in society’s expectations of science.

While numerous fastidious reviews of the scientists cleared them of wrongdoing, the strong and ongoing public interest in this matter demonstrates that society wants to know how science works, and who “does” science.

There is a great desire for public connection with the processes of science and the outcomes of scientific pursuits. The public is not necessarily satisfied by scientists working in universities and publishing their finding in articles obscured by pay walls, which cannot be publicly accessed.

A greater transparency of science is required. This is already taking off, with scientists communicating broadly through social and mainstream media and publishing in open access journals.

5. Non-experts can be scientists

Climate science increasingly recognises the value of citizen scientists.

Enlisting non-expert volunteers allows researchers to investigate otherwise very difficult problems, for example when the research would have been financially and logistically impossible without citizen participation.


Read more: Exoplanet discovery by an amateur astronomer shows the power of citizen science


The OzDocs project involved volunteers digitising early records of Australian weather from weather journals, government gazettes, newspapers and our earliest observatories. This project provided a better understanding of the climate history of southeastern Australia.

Personal computers also provide another great tool for citizen collaborators. In one ongoing project, climate scientists conduct experiments using publicly volunteered distributed computing. Participants agree to run experiments on their home or work computers and the results are fed back to the main server for analysis.

While we often think of scientists as trained experts working in labs and publishing in scholarly journals, the lines aren’t always so clear. Everyone has an opportunity to contribute to science.

My new book explores this space between the way science is discussed and the way it takes place.

The ConversationThis isn’t a criticism of science, which provides a useful way to explore and understand the natural world. It is a celebration of the richness, diversity and creativity of science that drives this exploration.

Sophie Lewis, Research fellow, Australian National University

This article was originally published on The Conversation. Read the original article.

Scientific integrity must be defended, our planet depends on it



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To conserve Earth’s remarkable species, such as the violet sabrewing, we must also defend the importance of science.
Jeremy Kerr, Author provided

Euan Ritchie, Deakin University; James Watson, The University of Queensland; Jeremy Kerr, and Martine Maron, The University of Queensland

Science is the best method we have for determining what is likely to be true. The knowledge gained from this process benefits society in a multitude of ways, including promoting evidence-based decision-making and management. Nowhere is this more important than conservation, as the intensifying impacts of the Anthropocene increasingly threaten the survival of species.

But truth can be inconvenient: conservation goals sometimes seem at odds with social or economic interests. As a result, scientific evidence may be ignored or suppressed for political reasons. This has led to growing global trends of attacking scientific integrity.

Recent assaults on science and scientists under Donald Trump’s US administration are particularly extreme, but extend far more broadly. Rather than causing scientists to shrink from public discussions, these abuses have spurred them and their professional societies to defend scientific integrity.

Among these efforts was the recent March for Science. The largest pro-science demonstration in history, this event took place in more than 600 locations around the world.

We propose, in a new paper in Conservation Biology, that scientists share their experiences of defending scientific integrity across borders to achieve more lasting success. We summarise eight reforms to protect scientific integrity, drawn from lessons learned in Australia, Canada and the US.

March for science in Melbourne.
John Englart (Takver)

What is scientific integrity?

Scientific integrity is the ability to perform, use and disseminate scientific findings without censorship or political interference. It requires that government scientists can communicate their research to the public and media. Such outbound scientific communication is threatened by policies limiting scientists’ ability to publish, publicise or even mention their research findings.

Public access to websites or other sources of government scientific data have also been curtailed. Limiting access to taxpayer-funded information in this way undermines citizens’ ability to participate in decisions that affect them, or even to know why decisions are being made.

News of the rediscovery of the shrub Hibbertia fumana (left) in Australia was delayed until a development at the site of rediscovery had been permitted. Political considerations delayed protection of the wolverine (right) in the United States.
Wolverine – U.S. National and Park Service. _Hibbertia fumana_ – A. Orme

A recent case of scientific information being suppressed concerns the rediscovery, early in 2017, of the plant Hibbertia fumana in New South Wales. Last seen in 1823, 370 plants were found.

Rather than publicly celebrate the news, the NSW Office of Environment and Heritage was reportedly asked to suppress the news until after a rail freight plan that overlapped with the plants’ location had been approved.

Protecting scientists’ right to speak out

Scientists employed by government agencies often cannot discuss research that might relate to their employer’s policies. While it may not be appropriate for scientists to weigh in on policy recommendations – and, of course, constant media commentaries would be chaos – the balance has tipped too far towards restriction. Many scientists cannot publicly refer to their research, or that of others, let alone explain the significance of the findings.

To counter this, we need policies that support scientific integrity, an environment of transparency and the public’s right to access scientific information. Scientists’ right to speak freely should be included in collective bargaining agreements.

Scientific integrity requires transparency and accountability. Information from non-government scientists, through submitted comments or reviews of draft policies, can inform the policy process.

Although science is only one source of influence on policy, democratic processes are undermined when policymakers limit scrutiny of decision-making processes and the role that evidence plays in them.

Let science inform policy

Independent reviews of new policy are a vital part of making evidence-based decisions. There is room to broaden these reviews, inviting external organisations to give expert advice on proposed or existing policies. This also means transparently acknowledging any perceived or actual vested interests.

Australian governments often invite scientists and others to contribute their thoughts on proposed policy. The Finkel Review, for example, received 390 written submissions. Of course, agencies might not have time to respond individually to each submission. But if a policy is eventually made that seems to contradict the best available science, that agency should be required to account for that decision.

Finally, agencies should be proactively engaging with scientific groups at all stages of the process.

Active advocacy

Strengthening scientific integrity policies when many administrations are publicly hostile to science is challenging. Scientists are stuck reactively defending protective policies. Instead, they should be actively advocating for their expansion.

The goal is to institutionalise a culture of scientific integrity in the development and implementation of conservation policies.

A transnational movement to defend science will improve the odds that good practices will be retained and strengthened under more science-friendly administrations.

The monarch butterfly, now endangered in Canada, and at risk more broadly.
Jeremy Kerr

Many regard science as apolitical. Even the suggestion of publicly advocating for integrity or evidence-based policy and management makes some scientists deeply uncomfortable. It is telling that providing factual information for policy decisions and public information can be labelled as partisan. Nevertheless, recent research suggests that public participation by scientists, if properly framed, does not harm their credibility.

Scientists can operate objectively in conducting research, interpreting discoveries and publicly explaining the significance of the results. Recommendations for how to walk such a tricky, but vital, line are readily available.

Scientists and scientific societies must not shrink from their role, which is more important than ever. They have a responsibility to engage broadly with the public to affirm that science is indispensable for evidence-based policies and regulations. These critical roles for scientists help ensure that policy processes unfold in plain sight, and consequently help sustain functioning, democratic societies.


The ConversationThe authors would like to acknowledge the contribution of Dr Carlos Carroll, a conservation biologist at the Klamath Center for Conservation Research.

Euan Ritchie, Senior Lecturer in Ecology, Centre for Integrative Ecology, School of Life & Environmental Sciences, Deakin University; James Watson, Associate Professor, The University of Queensland; Jeremy Kerr, University Research Chair in Macroecology and Conservation, University of Ottawa, and Martine Maron, ARC Future Fellow and Associate Professor of Environmental Management, The University of Queensland

This article was originally published on The Conversation. Read the original article.

What our backyards can tell us about the world



Image 20170308 14932 4etsx7
Citizen science projects are a way to contribute to science from your own backyard.
Shutterstock

Kathryn Teare Ada Lambert, University of New England

Our backyards are home to many scuttling, slithering and scampering creatures, which are often the subject of fascination. But they can also play a key role in tracking the changes in the world around us – for science. The Conversation

Science is a vital tool to monitor the world, but scientists can’t do it all alone. Ordinary citizens can help by getting involved in a citizen science project.

People are spending weekends with their friends and families learning more about their backyards and gathering data that would otherwise be inaccessible to scientists.

They’re helping to manage invasive species, tree death, diseases and animal health. And it’s a way to take responsibility for the environment, urban areas, farmland and the creatures that visit our gardens.

Here are just a few ways you can get involved too.

Birds in backyards

Bird feeders and water dispensers are a great way to monitor human interactions with wildlife. If you have them, you can see the effect they have on your garden. You may even get a visit from a threatened species.

This project, created by researchers at Deakin and Griffith universities, aims to find out how people influence bird numbers and species diversity, and to measure the impact of food and water provisions. The organisers are looking for volunteers.

Additionally, BirdLife Australia’s Birds in Backyards is a project that collects reports of backyard bird sightings for analysis through the data-collection site Birdata. The site also contains resources on bird-friendly gardening, a bird finder tool (for identifying that pesky bird), forums and events.

Aggressive birds?

You may have heard the story of the bell miner (Manorina melanophrys), its feeding habits, aggressive behaviour and its association with a plant sickness known as eucalypt dieback.

A bell miner hangs from the trees.
David Cook/Flickr, CC BY-NC

The Bell Miner Colony Project, which I run, looks at the bell miners’ habitat choice and movements, and investigates whether they really cause dieback. The project, developed two years ago, looks to answer questions about bell miner distribution across the east coast of Australia, and helps with managing forests and gardens.

Most people either love or hate bell miners. I personally love them, so I want to find out what they are really doing on a species scale.

One colony lives in the Melbourne Botanic Gardens and another in the Melbourne Zoo, so they are easy to see and visit. They make a distinctive “tink” call throughout the day, which can be used to monitor density. If you have seen any, please report them.

Tracking ferals

If your area seems to be riddled with pests, Feral Scan is a website for surveying and identifying them. The data is compiled and plotted on a map to create a scanner for previous sightings.

Another website for reporting biodiversity sightings is the Atlas of Living Australia. Any species seen in your backyard or during your travels can be added to the searchable database of sightings from across the nation.

Helping wombats

WomSAT maps and record wombats and wombat burrow locations. So if you’ve seen wombats running around, let them know.

A wombat infected with mange.
Upsticksngo/Flickr, CC BY

There is also a call for volunteers in the ACT to help treat wombats with mange infections. Mange is a skin disease caused by mites, which leaves wombats itching until they scab. Volunteers help by applying treatments outside wombat burrows and monitoring the burrows with cameras.

Weed spotting

For those of you who are not into animals, there is a project for detecting new and emerging weeds in Queensland.

Queensland Herbarium teaches weed identification and mapping skills so that you can send your weed specimens and accompanying data to them.

This helps scientists determine where weeds are, how they spread and the best process for large-scale management.

Kathryn Teare Ada Lambert, Ecologist, University of New England

This article was originally published on The Conversation. Read the original article.