183 research outputs found
Transformations to achieve the Sustainable Development Goals Includes the SDG Index and Dashboards. Sustainable Development Report 2019
The Sustainable Development Report 2019 presents an updated SDG Index and Dashboards with a refined assessment
of countries’ distance to SDG targets. The report has been successfully audited for the first time by the European Commission
Joint Research Centre. New indicators have been included, primarily to refine the indicator selection on agriculture, diets, gender
equality and freedom of speech. We have also added more metrics for international spillovers, including on fatal work accidents.
A new website and data visualization tools are available (http://sustainabledevelopment.report).
Once again, Nordic countries – Denmark, Sweden and Finland – top the SDG Index. Yet, even these countries
face major challenges in implementing one or several SDGs. No country is on track for achieving all 17 goals with major
performance gaps even in the top countries on SDG 12 (Responsible Consumption and Production), SDG 13 (Climate
Action), SDG 14 (Life Below Water) and SDG 15 (Life on Land). Income and wealth inequalities, as well as gaps in health
and education outcomes by population groups also remain important policy challenges in developing and developed
countries alike.
The Sustainable Development Report 2019 generates seven major findings:
1. High-level political commitment to the SDGs is falling short of historic promises
In September 2019, heads-of-states and governments will convene for the first time in person at the UN in New York to
review progress on their promises made four years after the adoption of the 2030 Agenda. Yet, our in-depth analyses show
that many have not taken the critical steps to implement the SDGs. Out of 43 countries surveyed on SDG implementation
efforts, including all G20 countries and countries with a population greater than 100 million, 33 countries have endorsed
the SDGs in official statements since January 1st, 2018. Yet in only 18 of them do central budget documents mention the
SDGs. This gap between rhetoric and action must be closed.
2. The SDGs can be operationalized through six SDG Transformations
SDG implementation can be organized along the following Transformations: 1. Education, Gender, and Inequality; 2. Health,
Wellbeing, and Demography; 3. Energy Decarbonization and Sustainable Industry; 4. Sustainable Food, Land, Water, Oceans;
5. Sustainable Cities and Communities; and 6. Digital Revolution for Sustainable Development. The transformations respect
strong interdependencies across the SDGs and can be operationalized by well-defined parts of governments in collaboration
with civil society, business, and other stakeholders. They must be underpinned and guided by the principles of Leave No One
Behind and Circularity and Decoupling of resource use from human wellbeing.
3. Trends on climate (SDG 13) and biodiversity (SDG 14 and SDG 15) are alarming
On average, countries obtain their worst scores on SDG 13 (Climate Action), SDG 14 (Life Below Water) and SDG 15 (Life on
Land). No country obtains a “green rating” (synonym of SDG achieved) on SDG 14 (Life Below Water). Trends on greenhouse
gas emissions and, even more so, on threatened species are moving in the wrong direction. These findings are in line with
the recent reports from the IPCC and IPBES on climate change mitigation and biodiversity protection, respectively.
4. Sustainable land-use and healthy diets require integrated agriculture, climate and health policy interventions
Land use and food production are not meeting people’s needs. Agriculture destroys forests and biodiversity, squanders
water and releases one-quarter of global greenhouse-gas emissions. In total, 78% of world nations for which data are
available obtain a “red rating” (synonym of major SDG challenge) on sustainable nitrogen management; the highest
number of “red” rating across all indicators included in the report. At the same time, one-third of food is wasted, 800 million
people remain undernourished, 2 billion are deficient in micronutrients, and obesity is on the rise. New indicators on
nations’ trophic level and yield gap closure highlight the depth of the challenge. Transformations towards sustainable landuse
and food systems are required to balance efficient and resilient agriculture and forestry with biodiversity conservation
and restoration as well as healthy diets
Fix the broken food system in three steps
Land use and food production are not meeting people’s needs1. Agriculture destroys forests and biodiversity, squanders water and releases one-quarter of global greenhouse-gas emissions. Yet one-third of food is wasted, 800 million people remain undernourished, 2 billion are deficient in micronutrients, and obesity is on the rise. These figures will worsen as the planet warms, soils degrade and the global population grows, urbanizes and consumes more.
Threats to agriculture, climate and health are entwined. Yet policies treat each in isolation and are misaligned. National strategies for mitigating climate change pay scant attention to biodiversity and food security. The European Union’s Common Agricultural Policy includes steps to reduce emissions from livestock and fertilizers, for example, but offers no way of improving diets
Strengthening Synergies: How Action to Achieve Post-2020 Global Biodiversity Conservation Targets Can Contribute to Mitigating Climate Change
The essential contribution of nature to addressing climate change provides an opportunity to strengthen the links between the United Nations Framework Convention on Climate Change and the Convention on Biological Diversity. As we move towards the next Conferences of the Parties of both Conventions, there is a need to assess explicitly the role of nature in helping to meet the goals of these agreements efficiently and effectively. This series of reports aims to shed light on this topic by assessing the potential contribution that achieving biodiversity conservation targets can make to climate change mitigation. By doing so, it aims to provide both context and mandate for discussions under both Conventions on the role of nature-based solutions in climate change mitigation and links to biodiversity conservation action
Exploring the financial and investment implications of the Paris Agreement
A global energy transition is underway. Limiting warming to 2°C (or less), as envisaged in the Paris Agreement, will require a major diversion of scheduled investments in the fossil-fuel industry and other high-carbon capital infrastructure towards renewables, energy efficiency, and other low or negative carbon technologies. The article explores the scale of climate finance and investment needs embodied in the Paris Agreement. It reveals that there is little clarity in the numbers from the plethora of sources (official and otherwise) on climate finance and investment. The article compares the US100 billion figure is a fraction of the broader finance and investment needs of climate-change mitigation and adaptation, it is significant when compared to some estimates of the net incremental costs of decarbonization that take into account capital and operating cost savings. However, even if the annual US$100 billion materializes, achieving the much larger implied shifts in investment will require the enactment of long-term internationally coordinated policies, far more stringent than have yet been introduced.</i
Mapping co-benefits for carbon storage and biodiversity to inform conservation policy and action
International audienceIntegrated high-resolution maps of carbon stocks and biodiversity that identify areas of potential co-benefits for climate change mitigation and biodiversity conservation can help facilitate the implementation of global climate and biodiversity commitments at local levels. However, the multi-dimensional nature of biodiversity presents a major challenge for understanding, mapping and communicating where and how biodiversity benefits coincide with climate benefits. A new integrated approach to biodiversity is therefore needed. Here, we (a) present a new high-resolution map of global above- and below-ground carbon stored in biomass and soil, (b) quantify biodiversity values using two complementary indices (BIp and BIr) representing proactive and reactive approaches to conservation, and (c) examine patterns of carbon–biodiversity overlap by identifying 'hotspots' (20% highest values for both aspects). Our indices integrate local diversity and ecosystem intactness, as well as regional ecosystem intactness across the broader area supporting a similar natural assemblage of species to the location of interest. The western Amazon Basin, Central Africa and Southeast Asia capture the last strongholds of highest local biodiversity and ecosystem intactness worldwide, while the last refuges for unique biological communities whose habitats have been greatly reduced are mostly found in the tropical Andes and central Sundaland. There is 38 and 5% overlap in carbon and biodiversity hotspots, for proactive and reactive conservation, respectively. Alarmingly, only around 12 and 21% of these proactive and reactive hotspot areas, respectively, are formally protected. This highlights that a coupled approach is urgently needed to help achieve both climate and biodiversity global targets. This would involve (1) restoring and conserving unprotected, degraded ecosystems, particularly in the Neotropics and Indomalaya, and (2) retaining the remaining strongholds of intactnes
Mapping the planet’s critical natural assets
Sustaining the organisms, ecosystems and processes that underpin human wellbeing is necessary to achieve sustainable development. Here we define critical natural assets as the natural and semi-natural ecosystems that provide 90% of the total current magnitude of 14 types of nature’s contributions to people (NCP), and we map the global locations of these critical natural assets at 2 km resolution. Critical natural assets for maintaining local-scale NCP (12 of the 14 NCP) account for 30% of total global land area and 24% of national territorial waters, while 44% of land area is required to also maintain two global-scale NCP (carbon storage and moisture recycling). These areas overlap substantially with cultural diversity (areas containing 96% of global languages) and biodiversity (covering area requirements for 73% of birds and 66% of mammals). At least 87% of the world’s population live in the areas benefitting from critical natural assets for local-scale NCP, while only 16% live on the lands containing these assets. Many of the NCP mapped here are left out of international agreements focused on conserving species or mitigating climate change, yet this analysis shows that explicitly prioritizing critical natural assets and the NCP they provide could simultaneously advance development, climate and conservation goals.We thank all the participants of two working groups hosted by Conservation International and the Natural Capital Project for their insights and intellectual contributions. For further advice or assistance, we thank A. Adams, K. Brandon, K. Brauman, A. Cramer, G. Daily, J. Fisher, R. Gould, L. Mandle, J. Montgomery, A. Rodewald, D. Rossiter, E. Selig, A. Vogl and T. M. Wright. The two working groups that provided the foundation for this analysis were funded by support from the Marcus and Marianne Wallenberg Foundation to the Natural Capital Project (R.C.-K. and R.P.S.) and the Betty and Gordon Moore to Conservation International (R.A.N. and P.M.C.)
Connecting climate action with other sustainable development goals
The international community has committed to combat climate change and achieve 17 Sustainable Development Goals (SDGs). Here we explore (dis)connections in evidence and governance between these commitments. Our structured evidence review suggests that climate change can undermine 16 SDGs, while combatting climate change can reinforce all 17 SDGs but undermine efforts to achieve 12. Understanding these relationships requires wider and deeper interdisciplinary collaboration. Climate change and sustainable development governance should be better connected to maximize the effectiveness of action in both domains. The emergence around the world of new coordinating institutions and sustainable development planning represents promising progress
Chimera-like states in modular neural networks
Chimera states, namely the coexistence of coherent and incoherent behavior, were previously analyzed in complex networks. However, they have not been extensively studied in modular networks. Here, we consider a neural network inspired by the connectome of the C. elegans soil worm, organized into six interconnected communities, where neurons obey chaotic bursting dynamics. Neurons are assumed to be connected with electrical synapses within their communities and with chemical synapses across them. As our numerical simulations reveal, the coaction of these two types of coupling can shape the dynamics in such a way that chimera-like states can happen. They consist of a fraction of synchronized neurons which belong to the larger communities, and a fraction of desynchronized neurons which are part of smaller communities. In addition to the Kuramoto order parameter ?, we also employ other measures of coherence, such as the chimera-like ? and metastability ? indices, which quantify the degree of synchronization among communities and along time, respectively. We perform the same analysis for networks that share common features with the C. elegans neural network. Similar results suggest that under certain assumptions, chimera-like states are prominent phenomena in modular networks, and might provide insight for the behavior of more complex modular networks
Innovations for Sustainability: Pathways to an efficient and post-pandemic future
3rd Report prepared by The World in 2050 initiativ
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