Category: Article

Living Planet,Singapore

The Earth is out of radiative energy balance. There is more energy coming into the Earth’s atmosphere than is being radiated back to space. The reason for this is the excess of greenhouse gases (GHGs), primarily as carbon dioxide (CO2), that are being emitted to the atmosphere from our combustion of fuels (coal, oil and natural gas). If this energy imbalance is not addressed then the world will continue to warm with dire consequences for humanity and wildlife.

The Earth’s energy imbalance is now being quantified accurately by a global array of Argo floats - a flotilla of over 3,000 remote sensing devices distributed throughout the world’s oceans that are constantly monitoring its heat content. Over time, the Argo floats have measured a large and growing global energy imbalance. In the period from 2005 to 2016 the increase in ocean heat content measured by the Argo floats was equivalent to a planetary energy gain equal to the detonation of over 500,000 Hiroshima-sized nuclear weapons - every day. This level of energy gain in the Earth’s climate system has become the key driver for the observed increase in extreme weather events around the world, the disintegration of the planet’s ice-sheets and a threat to the stability of global ecosystems.
Levels of CO2 in the atmosphere are now at 413 ppm, up from a pre-industrial level of 280 ppm. As a result, global warming is both accelerating and intensifying, where the radiative forcing from GHG emissions is 40% higher since 1990. The month of July 2019 was the warmest month ever to be recorded since records began in 1850, where the warmest 20 years have all occurred in the last 22 years. The last 4 years have been the warmest of all. Overall, average global surface temperatures have now risen by about 1oC since the start of the industrial revolution about 250 years ago.

Satellite measurements have confirmed that the Greenland and Western-Antarctic Ice-sheets are now losing ice-mass at an accelerating rate. In turn, this is driving non-linear changes in the climate system and a faster rate of sea-level rise. Paleoclimate evidence, from the Earth’s climate history, shows that during the Eemian interglacial period (about 120,000 years ago) that sea levels, at thermal equilibrium, were up to 9 metres higher than today. For a predicted level of global warming of over 30C by the year 2100, then the world will resemble the climate of the midPliocene (3-5 million years ago) where sea levels, at thermal equilibrium, were between 15 and 25 metres higher than today. These ancient changes in the radiative heat balance of the planet were caused by slow and steady changes in the Earth’s orbit and spin axis operating over a time scale of hundreds of thousands of years. In contrast, the rate of global now taking place is much more rapid and completely unprecedented in the paleoclimate record.

In October 2018, the United Nations issued a stark warning to the world. We have just 12 years to avoid a committed mean global temperature rise of 1.5oC, or risk triggering catastrophic climate change. According to the UN, keeping to the 1.5oC target under the 2015 Paris Climate Agreement will require “rapid, far-reaching and unprecedented changes in all aspects of society” to avoid what the UN refers has previously referred to as “dangerous anthropogenic interference with the climate system”.

The intricate relationships that exist between global ecosystems and biodiversity play a vital role in controlling the fluxes of GHGs and regulating climate stability. Coupled with the climate crisis, the world is also facing an equality dire ecological crisis which has been caused by the rapid and extensive degradation of the planet’s ecosystems, including its oceans, forests, and wetlands.

As a result, the Earth has now entered its sixth-mass extinction event, where the rate of species loss has risen to between 100 and 1000 times higher than natural background levels. In the last 50 years alone, the world is estimated to have lost over 60% of its wildlife, and about 75% of the planet’s land area is now degraded as a result of modern agricultural practices and rapid urbanisation.

Nothing short of massive, strong and global coordinated global action is now required to prevent a climate catastrophe and ecological breakdown, and their associated risks to humanity. A return to the climate of the current Holocene interglacial period, in which human civilisation developed, requires that the Earth’s radiative energy imbalance be corrected via rapid GHG reductions and the restoration of global ecosystems.

Singapore faces unique threats and opportunities in the face of a rapidly changing climate system and
the global ecological crisis. As a small, tropical island state nation, Singapore is increasingly vulnerable to both rising sea levels and warmer temperatures. The nation also faces indirect threats from a disruption of the global food supply chain as a result of changing weather patterns. In the face of these threats, Singapore is nonetheless well-placed to increase its resilience to climate change by developing appropriate adaptation and mitigation strategies. By leveraging its economic strength, its robust urban planning system, and its advanced research capabilities, Singapore has a unique opportunity to rise to the challenges of a changing climate. Furthermore, as a leader in the ASEAN region, Singapore also can develop advanced technologies to address sustainability challenges and lead the way for the rapidly growing nations of Southeast Asia.


by

Prof Dr Jeff Obbard

Prof. Jeff Obbard




Living Planet Pte Ltd has been recently established in Singapore by Professor Jeff Obbard, an environmental scientist and ecologist who has spent the last 25 years living and working in Singapore, and around the world. Jeff spent over 17 years working at the National University of Singapore (NUS), in the Faculty of Engineering. He was also the Research Director at the Tropical Marine Science Institute, and was also as Director of its Sustainable Development & Water Alliance. During his time at NUS, Jeff served as the Principal Scientist for Bioenergy at the Agency of Science & Technology, and as Vice President for Science & Technology on a Royal Dutch Shell Petroleum project to develop low-carbon, renewable biofuels in Hawaii, USA. He has also served as an Expert Reviewer to the Intergovernmental Panel on Climate Change and led a team from NUS to win the United Nations Mondialogo Award for Sustainable Development. Jeff is also as a Visiting Professor to the School of Water, Energy & Environment at Cranfield University in the UK - one of the UK’s leading postgraduate engineering universities

By establishing Living Planet in Singapore, Prof Jeff will provide strategic advice to government and industry on matters relating to sustainable development, climate science and natural resource management. Prof Jeff is also a Board Member and Advisor to GreenIn-Future. “Living Planet looks forward to working in close partnership with Green-in-Future to provide expert advice and solutions to our clients on their sustainable development challenges”, he said.

You can contact Prof Jeff Obbard via his Linked-In profile at www.linkedin.com/in/jeff-obbard-phd, or via his email at obbardjeff@gmail.com.

Cover story: A Biophilic Design

yanmar headquarters, biophilic design, Yanmar Headquarters, Osaka  Japan The Yanmar headquarters building is designed with the concept of "coexistence with nature", and emphasizes integration with life and nature. Rusted city beekeeping, natural ventilation system utilizing the spiral staircase in the center of the building, the entrance where water flows make this landscape with natural elements imitating nature a perfect biophilic design.

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Dr Jeff Obbard: Keeping our Stomachs Full in a Warming World

dr jeff obbard

Food production is fundamentally linked to predictable seasonal weather patterns, which in turn, are the expression of stable climatic systems around the world. These systems are now shifting – thanks to the unrelenting emission of greenhouse gases and the gradual warming of our atmosphere. Fossil fuel combustion coupled to major disturbances of the world’s natural carbon sinks (forests, wetland, and peatlands) is now threatening global food security – just when there are more mouths to feed on the planet than ever before.
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Workshops Gallery

Green Workshops 2017 Highlights

Green Workshops Connect with Nature #learnsgGreen workshops: Connect with Nature workshops designed for elders and seniors, organized by Green in Future #greeninfuture, include making a terrarium, tips, and practices for a greener Lifestyle and also enjoy Nature!!

Grateful to partner with Lifelong Learning Institute, a project supported by #LearnSG seed fund. Every Day, A Learning Day! #learnsg #connectwithnature #greeninfuture Venue: Yio Chu Kang Wellness Centre #AWWA

Thank you AWWA for working with us to reach the elders

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World’s Largest Concentrated Solar Power Project

dubai solar power projectDubai is going to be home to the world’s largest Concentrated Solar Power (CSP) project, costing 14.2 billion Dirhams (USD 3.87 billion). The project comes as part of implementing the fourth stage of the Mohammad Bin Rashid Al Maktoum Solar Park and to support the end goals of Dubai Clean Energy Strategy 2050. To be implemented by Dubai Water and Electricity Authority (Dewa), it is expected to generate 1,000 megawatts (MW) of clean energy when completed.

Using the Independent Power Producer (IPP) model, it will include the world’s tallest solar tower, at 260 meters high, and a 100 billion Dirham fund to finance the plan. Furthermore, 500 million Dirhams will be allocated for research and development works in the field of smart networks and improvement of energy efficiency.
Concentrated solar power plants, unlike solar energy drawn from photovoltaic cells, use a large array of mirrors, called heliostats, to concentrate a large area of sunlight onto a small area, typically on top of a tower.

Electricity is generated when the concentrated light gets converted to heat, which drives a steam turbine connected to an electrical power generator. An advantage of CSP is that thermal heat can be stored easily, making it possible to produce electricity after sunset.

The Dubai plant will have several thousand heliostats located around a tower. The resulting heat-transfer fluid will power a steam turbine to generate electricity. Incredibly, the new plant will deliver power at less than 8 cents per kilowatt per hour, down from the typical 15 kilowatts per hour rate. Once complete, the solar park is expected to
reduce 6.5 million tons of carbon emissions each year. A typical coal plant produces around 3.5 million tons of CO2 per year.

Dubai Clean Energy Strategy 2050 consists of five main pillars: infrastructure, legislation, funding, building capacities and skills, and having an environment-friendly energy mix.
The infrastructure pillar includes initiatives such as Mohammad Bin Rashid Al Maktoum Solar Park, which is the largest generator of solar energy in the world from a single location, with a capacity to produce 5,000MW by 2030, and a total investment of 50 billion Dirhams. The first phase of this project began operations in 2013 and the second will begin this year. Estimated to be in full operation in 2030, the Solar Park will produce 25 percent of the
total energy production in Dubai and 75 percent by 2050.