Monthly Archives: July 2017

One-Third of British Columbia’s Oil and Gas Wells Are Leaking Significant Levels of Methane

About 35 per cent of British Columbia’s 11,000 active oil wells, abandoned wells and water injection wells in the northeastern part of the province are leaking significant amounts of methane, according to a forthcoming new study.

The report will be released later in the summer and submitted to the industry-funded British Columbia Oil and Gas Commission.

Researchers with the David Suzuki Foundation measured leaks from abandoned, suspended, shut-in and active oil wells in the Montney shale gas play near Fort St. John.

According to John Werring, senior science and policy advisor to the Foundation, the study found that the average rate of flow of methane gas from surface casing vents from oil wells was conservatively estimated to be between nine and 11 cubic metres per day. That amounts to 14.2 million cubic metres, or 10,617 metric tonnes of methane a year from roughly 11,079 active oil wells, alongside abandoned, suspended and water disposal wells in B.C., said Werring.

Surface casing vent flow, or leaks at the wellhead, often signal failed well integrity. Cement seals erode and crumble as they age, creating pathways for methane to migrate to the surface.

“Methane leaks from abandoned wells are a huge problem and issue in this province,” said Werring. “As Alberta goes, so too does B.C.”

Both provinces have similar legislation that gives industry an indefinite time period to clean up inactive wells. Neither province has required industry to set aside even a fraction of the funds necessary to cover the cost of fixing these environmental liabilities.

The new study follows research with a mobile sensor mounted on a vehicle that detected large amounts of methane emanating from oil and gas wells in northeastern B.C.

That peer-reviewed study found that methane emissions from B.C.’s shale gas basins are now at least 2.5 times higher than provincial government estimates. That makes the oil and gas sector the largest source of climate pollution in B.C., a greater source of pollution than commercial transportation.

“The field study told us methane was floating around the region, but we didn’t know if it was coming from venting from pneumatic devices or leaks from the wellhead,” explained Werring.

Last August, Werring used a Flir infrared camera to identify the source of methane leaks at well sites. Where possible he put a balloon over the leak, and then measured the length and width of the balloon to calculate the volume of methane being leaked over time.

With a Flir camera, “The vapour coming off the sites looks like smoke,” Werring said.

Of 178 wells that Werring examined, 62 were abandoned or suspended wells. Twenty-nine per cent of these wells were leaking methane.

Werring also took images and methane samples from 25 producing oil wells and found that seven were leakers, or 28 per cent. In addition, more than half of all water injection wells were leaking methane, too.

The new study also found that 86 per cent of pneumatic devices, which help to control the flow of gas, at the provinces 12,000 gas well sites were venting methane into the atmosphere.

“The number one reason the industry is not dealing with the problem is the cost. It has nothing to do with the technology,” said Werring.

In jurisdictions such as B.C. and Alberta where the oil and gas industry is not required to post reclamation and clean up bonds, there is no incentive for industry to address these environmental liabilities.

“The problem is getting worse as the wells age, and the clean up of these wells shouldn’t be put on the back of taxpayers,” Werring said.

Out of 25,000 wells drilled in B.C in the last 100 years, nearly 7,000 have been abandoned and nearly 3,000 are inactive and await proper cement plugging and reclamation

This Author

Andrew Nikiforuk is an award-winning journalist who has been writing about the energy industry for two decades and is a contributing editor to The Tyee

*This article is shared with the Ecologist by www.TheTyee.ca

 

   

 

 

 

One-Third of British Columbia’s Oil and Gas Wells Are Leaking Significant Levels of Methane

About 35 per cent of British Columbia’s 11,000 active oil wells, abandoned wells and water injection wells in the northeastern part of the province are leaking significant amounts of methane, according to a forthcoming new study.

The report will be released later in the summer and submitted to the industry-funded British Columbia Oil and Gas Commission.

Researchers with the David Suzuki Foundation measured leaks from abandoned, suspended, shut-in and active oil wells in the Montney shale gas play near Fort St. John.

According to John Werring, senior science and policy advisor to the Foundation, the study found that the average rate of flow of methane gas from surface casing vents from oil wells was conservatively estimated to be between nine and 11 cubic metres per day. That amounts to 14.2 million cubic metres, or 10,617 metric tonnes of methane a year from roughly 11,079 active oil wells, alongside abandoned, suspended and water disposal wells in B.C., said Werring.

Surface casing vent flow, or leaks at the wellhead, often signal failed well integrity. Cement seals erode and crumble as they age, creating pathways for methane to migrate to the surface.

“Methane leaks from abandoned wells are a huge problem and issue in this province,” said Werring. “As Alberta goes, so too does B.C.”

Both provinces have similar legislation that gives industry an indefinite time period to clean up inactive wells. Neither province has required industry to set aside even a fraction of the funds necessary to cover the cost of fixing these environmental liabilities.

The new study follows research with a mobile sensor mounted on a vehicle that detected large amounts of methane emanating from oil and gas wells in northeastern B.C.

That peer-reviewed study found that methane emissions from B.C.’s shale gas basins are now at least 2.5 times higher than provincial government estimates. That makes the oil and gas sector the largest source of climate pollution in B.C., a greater source of pollution than commercial transportation.

“The field study told us methane was floating around the region, but we didn’t know if it was coming from venting from pneumatic devices or leaks from the wellhead,” explained Werring.

Last August, Werring used a Flir infrared camera to identify the source of methane leaks at well sites. Where possible he put a balloon over the leak, and then measured the length and width of the balloon to calculate the volume of methane being leaked over time.

With a Flir camera, “The vapour coming off the sites looks like smoke,” Werring said.

Of 178 wells that Werring examined, 62 were abandoned or suspended wells. Twenty-nine per cent of these wells were leaking methane.

Werring also took images and methane samples from 25 producing oil wells and found that seven were leakers, or 28 per cent. In addition, more than half of all water injection wells were leaking methane, too.

The new study also found that 86 per cent of pneumatic devices, which help to control the flow of gas, at the provinces 12,000 gas well sites were venting methane into the atmosphere.

“The number one reason the industry is not dealing with the problem is the cost. It has nothing to do with the technology,” said Werring.

In jurisdictions such as B.C. and Alberta where the oil and gas industry is not required to post reclamation and clean up bonds, there is no incentive for industry to address these environmental liabilities.

“The problem is getting worse as the wells age, and the clean up of these wells shouldn’t be put on the back of taxpayers,” Werring said.

Out of 25,000 wells drilled in B.C in the last 100 years, nearly 7,000 have been abandoned and nearly 3,000 are inactive and await proper cement plugging and reclamation

This Author

Andrew Nikiforuk is an award-winning journalist who has been writing about the energy industry for two decades and is a contributing editor to The Tyee

*This article is shared with the Ecologist by www.TheTyee.ca

 

   

 

 

 

One-Third of British Columbia’s Oil and Gas Wells Are Leaking Significant Levels of Methane

About 35 per cent of British Columbia’s 11,000 active oil wells, abandoned wells and water injection wells in the northeastern part of the province are leaking significant amounts of methane, according to a forthcoming new study.

The report will be released later in the summer and submitted to the industry-funded British Columbia Oil and Gas Commission.

Researchers with the David Suzuki Foundation measured leaks from abandoned, suspended, shut-in and active oil wells in the Montney shale gas play near Fort St. John.

According to John Werring, senior science and policy advisor to the Foundation, the study found that the average rate of flow of methane gas from surface casing vents from oil wells was conservatively estimated to be between nine and 11 cubic metres per day. That amounts to 14.2 million cubic metres, or 10,617 metric tonnes of methane a year from roughly 11,079 active oil wells, alongside abandoned, suspended and water disposal wells in B.C., said Werring.

Surface casing vent flow, or leaks at the wellhead, often signal failed well integrity. Cement seals erode and crumble as they age, creating pathways for methane to migrate to the surface.

“Methane leaks from abandoned wells are a huge problem and issue in this province,” said Werring. “As Alberta goes, so too does B.C.”

Both provinces have similar legislation that gives industry an indefinite time period to clean up inactive wells. Neither province has required industry to set aside even a fraction of the funds necessary to cover the cost of fixing these environmental liabilities.

The new study follows research with a mobile sensor mounted on a vehicle that detected large amounts of methane emanating from oil and gas wells in northeastern B.C.

That peer-reviewed study found that methane emissions from B.C.’s shale gas basins are now at least 2.5 times higher than provincial government estimates. That makes the oil and gas sector the largest source of climate pollution in B.C., a greater source of pollution than commercial transportation.

“The field study told us methane was floating around the region, but we didn’t know if it was coming from venting from pneumatic devices or leaks from the wellhead,” explained Werring.

Last August, Werring used a Flir infrared camera to identify the source of methane leaks at well sites. Where possible he put a balloon over the leak, and then measured the length and width of the balloon to calculate the volume of methane being leaked over time.

With a Flir camera, “The vapour coming off the sites looks like smoke,” Werring said.

Of 178 wells that Werring examined, 62 were abandoned or suspended wells. Twenty-nine per cent of these wells were leaking methane.

Werring also took images and methane samples from 25 producing oil wells and found that seven were leakers, or 28 per cent. In addition, more than half of all water injection wells were leaking methane, too.

The new study also found that 86 per cent of pneumatic devices, which help to control the flow of gas, at the provinces 12,000 gas well sites were venting methane into the atmosphere.

“The number one reason the industry is not dealing with the problem is the cost. It has nothing to do with the technology,” said Werring.

In jurisdictions such as B.C. and Alberta where the oil and gas industry is not required to post reclamation and clean up bonds, there is no incentive for industry to address these environmental liabilities.

“The problem is getting worse as the wells age, and the clean up of these wells shouldn’t be put on the back of taxpayers,” Werring said.

Out of 25,000 wells drilled in B.C in the last 100 years, nearly 7,000 have been abandoned and nearly 3,000 are inactive and await proper cement plugging and reclamation

This Author

Andrew Nikiforuk is an award-winning journalist who has been writing about the energy industry for two decades and is a contributing editor to The Tyee

*This article is shared with the Ecologist by www.TheTyee.ca

 

   

 

 

 

SPECIAL REPORT: China has a plan – Peak Coal and the new Silk Road

China’s contribution to global climate change will increase from oil and gas, not from coal. Despite that and the ongoing repression, internal environmental conflicts related to mining and coal-fired power plants will continue. These coal-related conflicts are not the only ones in China. There are hundreds of other socio-environmental conflicts: conflicts surrounding waste incinerators; environmental and occupational health issues; industrial tree plantations; dams and many others.

The Belt and Road initiative (BRI) launched in 2017 reflects China’s need to increase investments outside the country. Some of them will be in coal or other fossil fuels. Chinese projects overseas have often become conflictive due to working conditions and environmental damages. ‘Flag follows trade’ is the mantra now. 

China’s political power will be increasingly felt, guaranteeing investments and repayment of debts through arbitrage courts or other methods. China’s power will also include a strategy of displacing manufacturing controlled by Chinese firms to other countries – thus displacing carbon emissions.

Peak Coal in China

China is extracting an extraordinary 4 billion tons of coal per year, meaning 3 tons per capita. This  is four times more than the US, while the per capita amount is similar. In China, net imports of coal have also increased but they are scarcely relevant for the overall energy supply. China burned 4.7% less coal in 2016 than in the previous year and coal consumption has dropped since 2014 

This is because of a downturn in the growth rate of the economy and the associated closing of mines. But there is clearly also a structural change: the retreat from coal. Coal’s share in the energy mix decreased from 72% in 2009 to 62% in 2016. Natural gas is increasing as well as hydroelectric, photovoltaics and wind energy. 

There is no lack of coal reserves in China in the perspective of another 40 or 50 years. Coal is peaking because of the need to diminish internal pollution. With a similar population, India is still far behind, at 700 million tons of extraction of coal per year. 

Most coal in China comes from underground mining, with many mortal accidents. Opposition to coal-fired power stations is widespread because of pollution, soil subsidence and other local socio-environmental costs. Many people suffer from coal dust related lung diseases. Despite that, we have found no cases in China so far where local socio-environmental claims get into alliance with the global climate justice movement asking for leaving “coal in the hole” (as in Sompeta in Andhra Pradesh, India or in Fuleni in Kwa Zulu Natal, South Africa). 

The amount of coal to be mined yearly will still be very large for many years to come. The commitments of China under the Paris agreement of 2015 are for increasing the energy efficiency of the economy more than for a rapid reduction of total emissions. 

The circular economy 

Chinese authorities are aware of the nation’s heavy resource exploitation. In 2008, a Circular Economy ‘Promotion Law’ included targets for the coal, steel, electronics, chemical and petrochemicals industries. This has been included in the last three ‘Five years’ plans’. Similarly to the European Union, China’s interest in the circular economy is linked not only to a concern with environmental issues, but also to competitiveness and the provision of natural resources. The results of these policies have been limited. This is not surprising from the viewpoint of ecological economics. Since energy is dissipated and materials are recycled only to a small extent, even a non-growing economy would require everyday incursions into nature to extract energy and materials, and it would continue to produce pollutants and to add carbon dioxide to the atmosphere. 

This is much truer of a growing economy: the industrial economy is not circular, it is entropic. 

China has increased its consumption of natural resources five times from 1990 to 2011, from 5 to 25 billions tons. The material intensity of the economy has improved, especially in the 1990s, from 4.3 kg of resources per US dollar of GDP to 2.5. In other words, the Chinese economy has experience relative dematerialization, but not absolute. This confirms the fact that economic growth and sustainability are not compatible, no matter how you change the slogan from sustainable development, to green economy, green growth or circular economy. A resurgence in the idea of ecological Marxism, or the “ecological civilisation” are not enough since they are in contradiction with other major state policies. 

The Silk Road and Belt Initiative

China experiences a significant trade surplus. Yet, it faces excess capacity, which means some industries -from coal mining to steel production- suffers from over-production. Plans to increase internal demand are ongoing, with significant investments since the financial crisis. However, China’s economy is officially said to have entered the New Normal (xin chang tai) which means a new phase from the past high-speed growth pattern of 10% or more, to the current 7-8% (implying rates of growth of energy use slightly lower). 

Manufacturing industries can no longer rely only upon low cost production factors, since the prices of labor and land are on the rise. Service sectors are increasing in importance. Plus, technological innovation is expected to become the new driving force. Challenges are many, including high level of private and public indebtedness. 

In summary, China aims to transit from export-oriented growth to a new model based on consumption and outward investment. But how? 

China has a plan: To be precise, a Marshall Plan and much bigger than the original one. It could be called the ‘President Xi Plan’, or the ‘Xu Plan’ after the official that in 2009 submitted a proposal to the Ministry of Commerce, interpreted by the foreign press as the “Chinese Marshall Plan”. The context was the financial crisis, with decreasing exports and debates on how to increase domestic consumption. Xu Shanda proposed to use China’s foreign reserves to offer loans to developing countries, which in turn would then contract Chinese enterprises for major construction and infrastructure projects. In his own words: “It is envisaged that the plan can increase exports, digest China’s excess capacity now, but also promote the process of internationalization of the renminbi and raise domestic consumption and in the future domestic financial resources.” 

The Chinese investments in Latin America and Africa have been increasing. The “One Belt, One Road” (OBOR) strategy covers Central, North and South Asia and the Middle East (West Asia), but also Europe and East Africa. This is presented officially as an initiative for ‘shared development’ and not as a unilateral plan. The aim is to increase connectivity and cooperation between Eurasian countries via the land-based “Silk Road Economic Belt” and the oceangoing “Maritime Silk Road”. 

In mid-May 2017 officials and leaders from over 110 countries gathered in Beijing for the first “Belt and Road Forum”. The initiative includes trade, investment and resources extraction initiatives. OBOR aims to channel investments in infrastructure (such as railways, roads, airports, ports and waterways) to connect the region and to open new markets for Chinese products, services and capital. A farmer we met in Yangling (which is supposed to be the cradle of Chinese agriculture 4000 years ago) wondered whether with OBOR he could export kiwi to other countries. 

Investment would focus also on energy, mining, oil pipelines, and telecoms networks and communications. 

Many of these investments are based on renewable energies, but also on fossil fuels. For instance, Chinese companies have already invested heavily in 240 coal power projects in the region with a total generating capacity of 251 gigawatts; top countries are India, Indonesia, Mongolia, Vietnam and Turkey. This contradicts China’s peak coal at home and its promotion of renewable energy, and undermines global action on climate change. 

The Asian Infrastructure Investment Bank (AIIB), the Chinese ‘World Bank’, will serve as the financing arm. The projected investment for OBOR will be US$1.4 trillion (a bit more than Spain’s GDP). The plan will also have domestic positive effects, such as integrating the West part of the country, less industrialized than the East. It also aims to relocate abroad labour-intensive and low value-added manufacturing industries, in the hope also of displacing environmental impacts and conflicts.  

Apart from economic reasons, there is a clear political motivation behind the project: expand China’s influence in the region and in the world. In colonial times, some countries practiced the maxim “trade follows the flag” (first you take political power and them you promote resource extraction and trade), while other countries like Britain and The Netherlands practiced the reverse:  “The flag follows trade”. In the 21st Century China is following suite.  

Conclusion: the energy system and foreign investments  

China’s coal consumption has peaked, and this is good news. However, it is very far from a circular economy. Recent initiatives like OBOR are likely to increase China’s political power as well as extraction and consumption of natural resources, leading to more ecological distribution conflicts, both locally and globally including climate change.

China’s re-structuring of the economy and the energy system serves multiple objectives: 1) Investing the surplus arising from workers poor working conditions and low wages, from the exploitation of nature, from the relative easiness in getting land due to state ownership. This surplus is manifested in a high saving ratio and in the international positive trade balance; 2) Finding an outlet for the excess capacity by making investments abroad that will use Chinese labour and inputs, like steel; 3) Displacing geographically environmental impacts and conflicts; 4) Moving from an export manufacturing economy to a service economy, which means to move from a low cost economy to one of higher economic value-added products and services; 5) Meeting 2015 Paris agreement objectives on greenhouse gas emissions.   

These Authors

Federico Demaria and Joan Martinez Alier are ecological economists at ICTA, Universitat Autonoma de Barcelona, members of the EnvJustice project and the EjAtlas, a world-wide inventory of environmental conflicts (ejatlas.org). They recently lectured at North West A&F University in Yangling, Shaanxi on “Ecological distribution conflicts” and “Why our economies are not circular”, respectively.

 

 

 

Pakistan to quadruple carbon emissions despite feeling pain of climate change

When it comes to climate change, Pakistan’s stance has unequivocally been that of a country which is suffering the impacts but has not been responsible for the causes. 

This is a classic case of, ‘we didn’t do it, so we aren’t responsible’. The country’s national and international policies are focused on adaptation to the impacts of climate change, which it is already facing.

The preamble of the ‘Nationally Determined Contribution’ (NDC), Pakistan’s pledge of emissions reduction submitted to the UNFCCC last year, states: “Despite Pakistan’s diminutive contribution to global GHG emissions, it is among the 
top ten most climate-affected countries of the world, as indicated by the Global Climate Risk Index developed by Germanwatch.”

This is echoed in Pakistan’s Climate Change Bill, passed in 2016, which states: “Pakistan’s per capita emissions of greenhouse gases today is one of the lowest in the 
world. Yet it ranks amongst the top ten countries most affected by climate change during the last twenty years.”

And the theme continues through the media of Pakistan, which also regularly report on how Pakistan is the worlds “7th most vulnerable country to the impacts of climate change”. 

And its true: Pakistan is not only prone to extreme weather events, such as floods, droughts, or even the heatwave in Karachi in 2015 that killed up to 1,000 people, but also slow onset impacts such as glacier melt, rising temperatures, sea level rise and soil erosion, among others.

At the same time, as Pakistan has developed, its carbon emissions have grown. Between 1994 and 2015, the country’s carbon emissions grew 123 percent.

And as the country continues to push forward with economic development, under its Vision 2025 strategy and the CPEC, the prime minister recently reiterated the goal of becoming one of the top 20 economies of the world by 2025.

To achieve this economic growth, there will be a focus on the energy and transport sectors, which already account for a sizeable amount of Pakistan’s emissions.

In a recent statement, Pakistan’s minister for climate change stated that given the projected economic growth trajectory, emissions in Pakistan were expected to increase from 405 metric tons carbon dioxide to more than 1,603 metric tons of CO2 in the next 15 years – that means increasing by almost four times.

And although this will still not make Pakistan a big emitter, especially in comparison to its neighbours India and China, it will still have significant environmental impacts, as well as implications for Pakistan’s position as a country that has historically painted itself as a sufferer of the impacts of climate change, and not a contributor.

From an energy perspective, Pakistan’s development plans do include investment in renewables under the China Pakistan Economic Corridor, such as the $ 1.6 billion hydropower project in Karot, the $ 1.2 billion solar power park in Bahawalpur and the $ 260 million 100-megawatt wind farm in Jhimpir.

However, these are dwarfed by the huge investments in coal energy at the same time. As a country with a growing population, which faces an energy crisis, the government is justified in investing in energy, but at what future cost?

Recent reports also suggest that the price per unit of renewable energy in Pakistan is much higher than that of its neighbours, despite being tax free.

There are also a number of other hurdles, such as Pakistan’s rapid urbanization – more than half of the country will be living in urban areas by 2025, according to UN estimates. Karachi, the port city, is already the 7th largest megacity in the world.

Not only do urban areas consume a lot of energy, they are also responsible for producing the most emissions – UNHABITAT put the total emissions from carbon from cities at 60 percent, while putting the global consumption at 78 percent. 

While Pakistan surges forward with its economic development plans, which is not only encouraging but much needed, it has two options: either to continue in its current role as a vulnerable country, and position itself through its policies as such, or to think 20 years into the future, when it will have a larger economy and a larger population, and create a balance in its policies between curbing emissions growth and adaptation needs.

Given the frequency and rate at which climate change is impacting Pakistan, it will always be a vulnerable country. However, experts are optimistic about Pakistan catching up to its neighbours, India and China, in terms of economic development, albeit with external assistance.

This also means that emissions are set to rise, and Pakistan’s current planning and policies are not fully addressing the implications this may have. 

This Author

Anam manages the media research projects of Climate Tracker, and has been investigating climate reporting in over 20 countries on three continents in countless languages. This article is part of a collaboration between Carbon Tracker and The Ecologist. 

 

The future is bright for green energy and business

Environmental regulations for businesses have come to a standstill lately. There’s not been much emphasis on environmental issues during the election campaigns, and even the current administration is likely to abolish its much-lauded Carbon Reduction scheme for businesses. 

 

So where does that leave us? There are still European Union targets to reduce carbon emissions, but that’s likely to disappear as Brexit comes to closure. It might simply be a case of us business owners doing it ourselves if the government isn’t driving the agenda forward.

 

Starting out small

 

The good news is that the majority of businesses are investing more in energy efficiency schemes, perhaps ignoring their pricing commitments at the same time, but the emphasis is good to hear. This quiet revolution has largely gone unnoticed, with confidence in the government’s energy efficiency policy at an all-time low. 

 

Most businesses tackle the “low-hanging fruit,” such as replacing legacy lighting systems with high-efficiency equivalents, while the more adventurous invest in energy management systems, temperature controls and renewable energy technologies. 

 

The payback on most projects is steady, despite the costs of implementing such projects falling as technologies and demand improve. The most common schemes still focus on high-efficiency lighting and control projects.

 

Although fewer companies are reporting commissioning these—as many have already completed the transition—it’s one of the easiest, quickest and most cost-effective changes a business can make.

 

Depending on your circumstances, this simple switch could have a dramatic reduction on your electricity bill while reducing your company’s carbon footprint.

 

Why companies wait to change

 

The organisations that invest in environmental change do it for many reasons. However, there’s a real financial impact on their bottom line from reducing their costs.

 

In addition, the environmental benefits, especially for large consumers of energy, cannot be ignored. So why are some businesses behind others in this area? The top five reasons are: other priorities elsewhere in the business; lack of affordable financing; limited buy-in from senior management; lack of resources and andlord-owned buildings that don’t allow changes.

 

Nearly 50 percent of companies surveyed highlighted the first issue. It’s always difficult to make time for a new project that doesn’t necessarily affect a business growth plan. However, well-managed energy efficiency projects always improve profits.

 

Some suppliers and customers are even inquiring about the environmental policies of the businesses they frequent because they want to deal with like-minded organisations. It’s something that all businesses will have to manage at some point in their development.

 

Financing and resources are also a difficult juggling act. The initial investment can be excessive and pay-back periods long. There are limited funds available for businesses from the Green Business Fund, managed by The Carbon Trust (TCT), that could be available. TCT also helps with training, finding reputable suppliers and offer workshops for your employees to identify saving opportunities.

 

Energy-efficient behaviours in the workplace

 

Even the best energy-saving plans can be disrupted by people. You can install LED light bulbs and pre-program the thermostat, but employees may still leave the lights on or turn up the heat when it’s unnecessary, eroding all the good work you’ve undertaken.

 

That’s why clear and consistent workplace policies backed up by senior management are so important. It’s only when your senior management drives change—and shows that they mean business—that behaviour begins to match expectations.

 

You can hire outsourcing companies that work with you to drive the agenda forward, so you don’t need to find additional resources internally. Alternatively, hiring someone in-house, or assigning projects to existing staff, can produce similar results if they have adequate training and full senior management support.

 

Don’t make the mistake of giving the responsibilities to someone who won’t have the time to devote to this area, because it’s likely that nothing will be achieved.

 

Whoever is in charge, they should produce a full communications and project plan spanning at least one year detailing the changes required. Money talks, so carbon and consumption reductions could be introduced to the company’s bonus scheme to sharpen people’s focus.

 

Behaviour change in action

 

Some companies look to attain ISO 50001 energy standard accreditation through training initiatives. In conjunction with their external provider, Bristol Water implemented company-wide training that has a potential annual saving of £225,000 from their initiatives. 

 

Many other companies saw reductions in energy costs from implementing ISO 50001. Morgan Lovell achieved a 30 percent saving in electricity costs, Viridor has set a 20 percent gain in energy efficiency, Sheffield University reduced carbon emissions by 11 percent and Camfil Farr reduced energy consumption by £200,000 over two years. 

 

Let’s not forget unit energy prices

 

While more companies tackle green issues than their pricing contracts, the largest return on investment a business can make with the least amount of effort is finding the lowest unit energy costs each year.

 

If you leave your contract to lapse, your supplier is likely to increase your gas and electricity prices by 40 percent, and up to 100 percent in some circumstances.

 

Taking the time to either discuss your contract with one of the many accredited energy brokers or use a B2B comparison site could significantly reduce your prices each year. 

 

Wholesale energy prices have remained fairly flat over the past six years, and competition is fierce amongst suppliers in the non-residential market. Spend five minutes each year to complement your efficiency measures with renewed focus on your invoice.

 

Summary of Key Actions

 

The majority of business have already implemented some form of energy efficiency programme. If you haven’t started yet, start researching today.

 

Most barriers to beginning a programme can be overcome.

 

Corporate change through communication and training almost always provides valuable returns in reducing carbon and lowering energy bills.

 

Companies should check to make sure they’re on the cheapest tariff each year.

 

This Author

Jason Smith is an energy expert who has helped businesses increase their energy efficiency for more 10 years. He manages the website Business Electricity Prices, which advises small and medium sized businesses on reducing their utility bills.

 

How South Africa’s trade in captive-bred lions increases the extinction threat to wild tigers

Asia’s massive unchecked demand for skins, bones, teeth and claws continues to drive poaching of wild tigers. This demand is exacerbated by the supply of huge volumes of African lion bone, teeth and claws, sold as tiger parts to less-discerning consumers in Asia.

At the heart of the lion trade is South Africa – the world’s largest exporter of lion bone, teeth and claws, and also an exporter of captive tiger parts – whose Government, in sanctioning the export of 800 lion skeletons a year to generate profits for lion farmers, has failed to take into account the wider impact of such a decision on endangered wild tigers.

In 2016, CITES Parties decided to allow South Africa to set a quota for export of captive lion parts. In June 2017, the South African Government announced an export quota of 800 skeletons (with or without skulls) obtained from captive lions in South Africa.

The Government’s misconceived rationale for such trade is purportedly to protect the wild lion population in South Africa. The move, however, fails to take into consideration the fact that there are significant enforcement challenges in distinguishing between wild and captive lion skeletons and that its decision will also stimulate demand for big cat bone products.

It also ignores the failed experiment in China, where the parallel legal trade in skins from captive tigers has not put an end to wild tiger poaching. Contrary to the assertion of pro-tiger farming and trade advocates, the legal trade in skins of captive-bred tigers in China did not flood the market with cheap alternatives and failed to take into account consumer preferences

How captive Lion and Tiger exports threaten endangered wild tigers in Asia

African lions are listed under CITES Appendix II with an annotation meaning that some international commercial trade in wild and captive lion parts and products is allowed. South Africa has been legally exporting lion bone, claws, teeth, skulls and skeletons sourced from both wild and captive lions – the bodies and skeletons of at least 4,296 lions have been exported legally to Asian markets between 2005-15. In 2016, however, CITES Parties agreed to restrict this trade to specimens sourced from captive lions.

South Africa allows lion and tiger farming for commercial trade in parts and derivatives. With regard to the tiger farming operations, this contravenes CITES Decision 14.69. The country’s wild lion population is dwarfed by the reported 6,000 to 8,000 captive lions held in up to 200 facilities. Both the number of captive lions and the facilities breeding and keeping them have increased, coinciding with a dramatic increase in exports of lion bone and other lion parts, especially since 2008. A number of these facilities are also breeding tigers; in 2015, 280 tigers were estimated to be in at least 44 facilities in South Africa.

The proliferation of lion and tiger farms in South Africa and the associated trade from such facilities undermines enforcement efforts to end illegal tiger trade and stimulates demand for tiger parts and derivatives. Given consumer preferences for wild-sourced tiger parts, this also sustains poaching pressure on wild tigers.

It is clear that a legal trade in captive lion parts is unworkable and will likely have a detrimental impact, not only on wild lions but also on endangered wild tigers. The Government of South Africa must adopt urgent action to end this trade.

For the full EIA briefing report including the Agency’s recommendations see: The Lion’s Share

 

 

How South Africa’s trade in captive-bred lions increases the extinction threat to the world’s last remaining tigers

Asia’s massive unchecked demand for skins, bones, teeth and claws continues to drive poaching of wild tigers. This demand is exacerbated by the supply of huge volumes of African lion bone, teeth and claws, sold as tiger parts to less-discerning consumers in Asia.

At the heart of the lion trade is South Africa – the world’s largest exporter of lion bone, teeth and claws, and also an exporter of captive tiger parts – whose Government, in sanctioning the export of 800 lion skeletons a year to generate profits for lion farmers, has failed to take into account the wider impact of such a decision on endangered wild tigers.

In 2016, CITES Parties decided to allow South Africa to set a quota for export of captive lion parts. In June 2017, the South African Government announced an export quota of 800 skeletons (with or without skulls) obtained from captive lions in South Africa.

The Government’s misconceived rationale for such trade is purportedly to protect the wild lion population in South Africa. The move, however, fails to take into consideration the fact that there are significant enforcement challenges in distinguishing between wild and captive lion skeletons and that its decision will also stimulate demand for big cat bone products.

It also ignores the failed experiment in China, where the parallel legal trade in skins from captive tigers has not put an end to wild tiger poaching. Contrary to the assertion of pro-tiger farming and trade advocates, the legal trade in skins of captive-bred tigers in China did not flood the market with cheap alternatives and failed to take into account consumer preferences

How captive Lion and Tiger exports threaten endangered wild tigers in Asia

African lions are listed under CITES Appendix II with an annotation meaning that some international commercial trade in wild and captive lion parts and products is allowed. South Africa has been legally exporting lion bone, claws, teeth, skulls and skeletons sourced from both wild and captive lions – the bodies and skeletons of at least 4,296 lions have been exported legally to Asian markets between 2005-15. In 2016, however, CITES Parties agreed to restrict this trade to specimens sourced from captive lions.

South Africa allows lion and tiger farming for commercial trade in parts and derivatives. With regard to the tiger farming operations, this contravenes CITES Decision 14.69. The country’s wild lion population is dwarfed by the reported 6,000 to 8,000 captive lions held in up to 200 facilities. Both the number of captive lions and the facilities breeding and keeping them have increased, coinciding with a dramatic increase in exports of lion bone and other lion parts, especially since 2008. A number of these facilities are also breeding tigers; in 2015, 280 tigers were estimated to be in at least 44 facilities in South Africa.

The proliferation of lion and tiger farms in South Africa and the associated trade from such facilities undermines enforcement efforts to end illegal tiger trade and stimulates demand for tiger parts and derivatives. Given consumer preferences for wild-sourced tiger parts, this also sustains poaching pressure on wild tigers.

It is clear that a legal trade in captive lion parts is unworkable and will likely have a detrimental impact, not only on wild lions but also on endangered wild tigers. The Government of South Africa must adopt urgent action to end this trade.

For the full EIA briefing report including the Agency’s recommendations see: The Lion’s Share

 

 

Eradicating invasive species is essential for island conservation

Invasive alien species have been discussed at length for the first time in the northern hemisphere in a conference bringing together world experts in the field.

Seven key practitioners were able to share research and ideas on the topic this month, thanks to the conference hosted by the South Georgia Heritage Trust (SGHT), which has just completed its baiting phase to eradicate invasive rat species.

The conference follows on from the successes of previous Island Invasive meetings in 2001 and 2010 held in Auckland, New Zealand. 

Participation of delegates from Europe and North America, gave the opportunity to learn from the steps already taken in the Southern Hemisphere where successful eradication programmes have already taken place, or are currently being trialled.

Tackling invasive species

The SGHT is currently monitoring the success of the world’s largest island rodent eradication operation through its Habitat Restoration Project, aimed at protecting the islands precious seabird colonies.

CEO Alison Neil said: “We know first-hand how important and complex it can be to tackle invasive species from the extensive work we have carried out to eradicate rodents from South Georgia.

“This event comes at a time when there is a new level of ambition for island conservation. By bringing together the world’s leading experts in the field to share their experiences, global initiatives stand a greater chance of success.”

Invasive alien species (IAS) can be devastating to habitats, and where flora and fauna have evolved in isolation for thousands of years, they can become particularly vulnerable to extinction from anything brought in to their fragile environment.

Managing them is vital for many habitats and topics covered at the conference included biosecurity, plant invasions, and tackling mass extinctions. 

Speakers leading the debate included Elizabeth Bell of Wildlife Management International Ltd.

Her talk, “It’s not all up in the air: the development and use of ground-based rat eradication techniques in the UK and elsewhere”, explored the feasibility of moving to aerial application of rodenticides, rather than ground-based approaches. 

She said the opinions of island-communities and the presence of a variety of non-target species can be problematic, sometimes making ground-based operations the only option.

Dr Colin Clubbe of Royal Botanic Gardens, Kew spoke on invasive plant species with his talk entitled “Invasive plants: what can be done about this continuing threat to biodiversity?

Work at Kew has already shown there to be 6,075 vascular plant species currently documented as invasive. He discussed work undertaken by Kew’s UK Overseas Territories team who identify and map invasive plants and look at developing action plans to control them.

Lord Gardiner, the minister responsible for invasive species in England, said: “Invasive non-native species threaten the survival of plants and animals around the world and conferences like this are vital for sharing global expertise and bringing countries together to tackle the problem. 

“We are helping our overseas territories protect their precious plants and wildlife and the UK will keep investing and working with the international community and other partners to defend biodiversity at home and abroad.” 

There are several global initiatives to eradicate invasive alien species and to monitor their successes, including that of the New Zealand government, who set a strategic goal to eliminate possums, stoats and rats from the North and South Islands of the country by the year 2050. 

An ambitious operation to rid Desecheo National Wildlife Refuge (NWR) in the Caribbean of introduced, rats, has now been hailed a success by conservation biologists. This project, the largest conservation operation of its kind to date in the region, can enable the island to regain its status as the most important seabird colony in the region after a century of dealing with the rats.

In Honolulu, Hawaii, the “Honolulu Challenge” on invasive alien species is a global initiative born out of the 2016 IUCN World Conservation Congress. Here, experts, governmental and intergovernmental representatives, NGOs, and protected area managers called for greater action on addressing IAS in order to protect biodiversity and human well- being from their impacts.

Recovery of native habitats

Since the 1990s the UK’s RSPB and its partners have been involved in a range of complex and challenging island restoration projects, mostly across the UK and UK Overseas Territories.

Each project has typically involved the eradication or control of invasive mammals or plants. This has led to the recovery of internationally important seabird species on important sites, ranging from European storm petrel to Ascension frigatebird.

Other observed benefits have included the recovery of native habitats and the protection of vital eco-tourism income for local communities.

The South Georgia Heritage Trust, founded in 2005 baited the entire rodent-infested area of the Island of South Georgia (1000km2) in 2011, 2013 and 2015.

The total cost of this Habitat Restoration Project, including the monitoring work still to come, is an estimated £7.5 million. The project has been funded entirely by donations raised by Scottish charity SGHT and its US counterpart, Friends of South Georgia Island (FOSGI).

You can find out further information about the Habitat Restoration Project at www.sght.org

This Author

Laura Briggs is a regular contributor to the Ecologist. Follow her on Twitter @WordsbyBriggs

 

 

Securing a Future With Water Along Peru’s Rimac River Valley

Alejandro Cordova stands upon a lush green patch of land on a nameless peak in a region called Cancha Moya – just a few minutes’ drive up a narrow and bumpy dirt road from San Mateo, in Peru’s Rimac River Valley. He holds a handful of a long native grass that looks a bit like rye grass in his hands and rubs it between his fingers.

“These plants are going to save humanity,” he says.

It’s a big claim and a hard one to defend, but actually, he’s right – the grass in Alejandro’s hand and others like it may very well save dozens of communities living along the Rimac River.

Alejandro stands alongside several members of the local farmers’ collective and Aldo Cardenas, who heads The Nature Conservancy’s Lima office and its Peruvian water projects initiative, Aquafondo. Three years ago, the farmers’ collective approached The Nature Conservancy (TNC) with a proposal to develop a plot of land belonging to the community as a water fund site. Here, reforestation techniques would be employed to restore a degraded mountainside and provide a useable water source for cultivation, cattle and human consumption. Three years on, the project’s success is encouraging other water fund projects and providing a template for how stressed water sources can be managed along the Rimac River and beyond.

Increasing Demands on the Rimac

As stressed resources go, the Rimac River easily makes the list. Lima’s roughly 9.5 million residents, as well as the estimated 81,000 people living upstream depend upon it for drinking water, power and sewage services. Commercially, the river’s water is also used for mining, farming, bottled water production and hydroelectricity, which accounted for approximately 48% of Peru’s total energy in 2015.

But the strain placed by mining companies and a decline in seasonal precipitation, have drastically reduced the river’s flow. In fact, the Rimac no longer reaches the ocean during the months of November and December. To maintain a steady flow to Lima’s population, Sedapal, Lima’s water management authority, has developed a series of dams and connected lagoons in the mountains east of Lima and a system of smaller reserve tanks throughout the city.

Sedapal’s mountain reserve system has a capacity of 310 million cubic meters (MCM) – equivalent to 124,000 Olympic-sized swimming pools. Despite such capacity, estimates place Lima’s annual water usage at 700MCM. Assuming the rains were to fail one year and the reservoirs were full, which is rarely the case, Lima would have less than a six month supply of water.

Compared to other dry cities, such as Santiago, Chile, Lima’s per capita water use is quite high, at around 250 liters. These high usage rates stem from Sedapal’s past success in ensuring water access to residents. As Dr Fiorella Miñan, of Care Peru, points out, Lima’s residents have never felt the effects of a drying climate firsthand. That all changed during the recent extreme weather phenomenon dubbed the Coastal el Niño, which triggered weeks of unprecedented rains in lands that used to be bone dry.

The heavy rains brought on by this weather phenomenon caused widespread flooding and landslides, several of which combined to shut down Lima’s treatment plant for several days with more than 300,000 metric tons of accumulated dirt and rocks. Water services were disrupted throughout the city, including, for the first time, Lima’s wealthier districts. This prompted days of chaos, with bottled water prices soaring in supermarkets, and long queues of residents waiting for municipal water trucks to fill buckets in the heat.

“I’d never seen anything like it,” says Aldo Cardenas, of TNC. “You couldn’t find bottles of water in a single store.”

Progress in San Mateo

While Sedapal grapples with big projects like a desalination plant, aimed at delivering portable water to its millions, smaller projects that can mitigate the occurrence of landslides, like that at San Mateo are no less vital.

Now in its third year, the farmers, with help and financing from TNC, the Backus Foundation and the Fondo de las Americas (FONDAM), have built a small reservoir capable of storing 300m3 of water and installed a series of dykes that slow the downward flow of water. They have planted pine trees throughout the site, both as an added soil stabilizer and to provide the farmers with firewood from the trees’ branches. A lagoon lies on the highest ridge overlooking the site, which the collective and their partners plan to dam soon, thereby providing them with an even greater alternate source of water for agriculture and consumption.

Raúl Zegarra Isla, one of the collective’s members, takes twice-weekly soil samples above and below the dykes to measure their efficacy in retaining water. Although this year’s uncharacteristic rainfall has complicated these measurements, Zegarra says that the San Mateo site retains significantly more water than a neighbouring site called El Testigo, which does not have a dyke system.

The most prominent plants in the area are grasses. Alejandro explains that these grasses are vital to reforestation; they grow better at high altitudes than many other plants and create a complex root system which firms up soil and retains water. They also provide an environment for other needed plants, such as lupines, which fix nitrogen into the soil and they serve as a nutrient and protein-rich feed for cattle.

Too small to sustain enough agriculture to support the entire collective, which consists of some 200 families, the farmers plan to use this plot for multiple ends. They plan to use part of it to experiment with cultivating different grasses, seeing which ones will grow best and can be used to more effectively reforest other mountainsides. Roughly 10 head of cattle will be allowed to graze an enclosed section of the site, whose milk, and meat when needed, will be used by the members of the collective. They may also explore the cultivation of other vegetables. The trees, as stated, will provide firewood to the community.

The Need for More Small Projects

Projects like that at San Mateo reduce demand on the Rimac’s waters, provide small communities with greater autonomous water security and reduce the risk of yet more devastating landslides. The Callahuanca hydroelectric plant, a short drive downriver from San Mateo, demonstrates the effects of one such landslide. During the Coastal el Niño, the denuded mountainsides above the plant gave way under heavy rains, washing out houses and rendering the plant inoperable for over a month.  Liz, a resident of neighbouring Puranhuasy , who declined to give her last name, claimed to have never seen mudslides like that in her 36 years of living there. “Power was gone for a week,” she said, “and we suffered a plague of insects at night [from the leftover standing water].”

Not far from San Mateo, TNC is also helping the town of San Pedro de Castas to restore and expand a canal system first built by the Inca that will provide more people in that sparsely populated region with clean water. Alejandro Cordova, of the San Mateo farmers collective, plans to use the results of the grass planting experiments to seed more hillsides with grass to stem or even reverse the effects of erosion. With enough projects like this in place, one can imagine a sustainable and secure future for water use in this region.

Challenges to Come

But that future faces challenges. One of the largest and longest running disputes involving the Rimac’s water is how to curtail and clean mining-related pollution. A recent study found high doses of sulfides and metals such as arsenic, cadmium, copper, zinc and manganese contaminating the Rimac and Aruri rivers. Although this poses a clear health threat to those using the waters of these rivers, little is being done to remedy it, due to ongoing litigation. While Lima and some towns along the river have treatment plants that can cope with at least some of the mines’ pollution, water used for agriculture is rarely treated before use, leading to downstream contamination of produce, livestock and ultimately, people.

Significant changes will have to be made if the water needs of the population dependent upon the Rimac watershed are to be met. Water for everything from agriculture to individual households will need to be used more efficiently. For Lima, this may mean learning to use less water throughout the day. Mining-related pollution must be reined in. Investment in other cities that could stem the flow of migration into Lima would reduce the Rimac’s single biggest draw. But these are ambitious proposals that require massive buy-in from citizens, corporations and politicians.

On a smaller but more achievable scale, reforestation and water storage projects like that at San Mateo stand to reduce the demand on the Rimac while empowering local communities and diminishing the chances of future devastating landslides. San Mateo’s success is showing a viable way forward that can be copied throughout many other communities along the Rimac River.

Alejandro’s dream of saving humanity with his grasses is a pretty big one, but it sounds less naïve looking across the valley that separates San Mateo’s water fund from the Coricancha mine. San Mateo’s side of the valley is lush and green from the valley floor to its peaks. Trees and bushes stand tall, having benefitted from several years of uninterrupted growth. Across the valley, wide brown landslides scar a mountainside devoid of trees and all but a few hardy quishuar bushes. The view itself is a proof-of-principle for how fitting it is to respond to natural disasters like the Coastal el Niño with natural solutions like San Mateo’s promising and easily replicable reforestation project.

This Author

Forest Ray explores social security issues throughout Latin America through the lenses of tourism and ecological health. He is currently based in Cuzco, Peru