Tag Archive for: Carbon Emissions

When we look at all the new construction in the next 20 years, we see the critical role embodied carbon plays. The world urgently needs to address carbon emissions from buildings and construction, constituting almost 40% of global carbon emissions. Of those total emissions, building operations are responsible for 28% annually, while building materials and construction (typically referred to as embodied carbon) are responsible for an additional 12% annually.

The construction industry is the world’s largest single industry. Oxford Economics estimates the global construction market at $10.7 trillion in 2020. The market is expected to grow by $4.5 trillion between 2020 and 2030 to reach $15.2 trillion.

Embodied Carbon Software

Unlike operational carbon emissions, which can be reduced over time with building energy upgrades and the use of renewable and nuclear energy, embodied carbon emissions are locked in place upon completion of construction. The owners and construction industry must handle embodied carbon now if we hope to achieve climate change goals by target dates. Embodied carbon typically precedes Scope 1, 2, and 3 emissions and should be added to those for any new construction.

Achieving zero embodied emissions will require adopting the principles of reusing, reducing, and sequestering, including retrofitting existing buildings, using recycled materials, and designing for deconstruction. Reducing means material optimization and the specification of low to zero carbon materials. Sequester means including the design of carbon sequestering sites and the use of carbon sequestering materials.

Just three materials – concrete, steel, and aluminum – are responsible for 23% of total global emissions (most of the materials used in the built environment). Concrete is the second most-consumed substance on Earth after water. Overall, humanity produces more than 10 billion tons, about 4 billion cubic meters of concrete and cement per year, or about 1.3 tons for every person on the planet, more than any other material, including oil and coal. The consumption of concrete exceeds that of all other construction materials combined. Making modern cement and concrete has a heavy environmental penalty, being responsible for 5% or so of global carbon emissions. And yet, most of those emissions are not accounted for during regular carbon reporting protocols. Steel and aluminum are not much different.

All companies that want to be credible with their carbon reporting need software tools for embodied carbon tracking and management. For this reason, Locus has developed a SaaS application to manage and report embodied carbon data in real-time during construction projects. The Locus Embodied Carbon app, part of the ESG toolset, advances environmentally friendly infrastructure design and increases the ability to track and reduce emissions before being built in the new structure forever.

Locus’s Embodied Carbon management software automates carbon emissions management throughout the design and construction processes. It is one of the most ambitious real-time carbon management software programs in the US. Locus Embodied Carbon app helps site owners, construction companies, and the supply chain reduce embodied carbon from on-site construction activities and reduce air pollution from construction activities.

Embodied Carbon Software

Locus Embodied Carbon application combines the advantages of Locus Platform’s multitenant SaaS with its powerful configuration tools and APIs that, for example, stream carbon data from construction equipment to online software. The construction industry now has precisely the ESG software solution they need to fit their business processes for the low carbon construction program management to incorporate other EHS compliance and Sustainability data on the same unified platform in the future.

A coalition of the world’s oil companies agreed to reduce methane emissions from natural gas extraction—part of an effort to shore up the climate credentials of the hydrocarbon.

The Oil and Gas Climate Initiative said it would target reducing methane emissions to less than 0.25% of the total natural gas the group of 13 member companies produces by 2025.

Methane is the main component of natural gas. During extraction, transport, and processing, it often leaks into the environment. Methane is a much more potent greenhouse gas than CO2. In the short term, it traps more heat although it stays shorter in the atmosphere. According to the International Energy Agency, one ton of methane is equivalent to as much as 87 tons of carbon dioxide over a 20-year time frame.

Natural gas production is growing. Many big oil companies are increasing production of natural gas to offset higher emissions from other hydrocarbon and coal sources. The switch makes the oil-and-gas industry look better when demonstrating emission reduction to limit climate change.

For that reason, some oil companies, Shell, in particular, has tilted its production mix toward more gas output.

According to 2018 report by the Environmental Defense Fund, a nonprofit environmental advocacy group, as much as $34 billion of global gas supply is lost each year through leaks and venting. That is another valid reason to limit those methane escapes and park the proceeds to the bottom line. That in itself could fund part of the effort to stop or reduce the leaks.

International shipping produces about 1,000 million tons of CO2 annually – that’s more than the entire German economy.

A meeting of the International Maritime Organisation in London that starts tomorrow will discuss how shipping industry can radically reduce its CO2 emissions. The shipping industry, if it does not change the way it operates, will contribute almost a fifth of the global total of CO2 by 2050. A group of nations led by Brazil, Saudi Arabia, India, Panama, and Argentina is resisting CO2 targets for shipping. Their submission to the meeting says capping ships’ overall emissions would restrict world trade. It might also force goods on to less efficient forms of transport. This argument is dismissed by other countries which believe shipping could benefit from a shift towards cleaner technology. European nations are proposing to shrink shipping emissions by 70-100 percent of their 2008 levels by 2050.

The problem has developed over many years. As the shipping industry is international, it evades the carbon-cutting influence of the annual UN talks on climate change, which are conducted on a national basis. Instead, the decisions have been left to the IMO; a body recently criticized for its lack of accountability and transparency. The IMO did agree on a design standard in 2011 ensuring that new ships should be 30 percent more efficient by 2025. But there is no rule to reduce emissions from the existing fleet.

The Clean Shipping Coalition, a green group focusing on ships, said shipping should conform to the agreement made in Paris to stabilize the global temperature increase as close as possible to 1.5C. The pressure is on the IMO to produce an ambitious policy. The EU has threatened that if the IMO doesn’t move far enough, the EU will take over regulating European shipping. That would see the IMO stripped of some of its authority.

Some say huge improvements in CO2 emissions from existing ships can be easily be made by obliging them to travel more slowly. They say a carbon pricing system is needed.

Blockchain is a highly disruptive technology that promises to change the world as we know it, much like the World Wide Web’s impact after its introduction in 1991. As companies look to the blockchain model to perform financial transactions, trade stocks, and create open market spaces, many other industries are looking at utilizing blockchain technology to eliminate the middleman. One sector well-positioned to benefit from blockchain technology is the data-intensive Environment, Health, Safety and Sustainability (EHS&S) space.

In particular, I see three major ways that the EHS industry can utilize blockchain technology to change how they manage information: 1) Blockchain-based IoT monitoring, 2) emissions management, and 3) emissions trading.

My belief is that blockchain technology will help to quantify the impact of man-made emissions on global warming trends and provide tools to manage it. One cannot manage what one cannot measure!

Imagine this: every emissions source in your company, whether to water, air, or soil, is connected wirelessly via a sensor or another device (thing) to a blockchain ledger that stores a description of the source, its location, emission factors, etc. Every time that the source generates emissions (that is, it is on), all necessary parameters are recorded in real time. If air emissions are involved, equivalent tons of carbon are calculated and recorded in a blockchain ledger and made available to reporting and trading entities in real time.

Blockchain ledgers may exist at many levels. Some may record emissions at a given site. Others at higher levels (company, state or province, country, continent, etc.) may roll up information from lower level ledgers.

Suppose that emissions are traded so that they are not yours anymore. In that case, someone else owns them, and you do not need to report them again, but everyone knows that you were the generating source. The same logic can be applied to tier 1, 2, and 3 level emissions. Attached to the emissions ledger are all other necessary information about the asset generating those emissions, financial information, depreciation schedule, time in service, operating time, fuel consumption, operators’ names, an estimate of future emissions—the list goes on.

To learn more how blockchain technology will impact emissions monitoring, management, reporting, and trading click here.

Does the solution for over 5% of world CO2 emissions lie in the 2000-year-old concrete-making technology from ancient Rome?

Concrete is the second most consumed substance on Earth after water.  Overall, humanity produces more than 10 billion tons (about 4 billion cubic meters) of concrete and cement per year.  That’s about 1.3 tons for every person on the planet— more than any other material, including oil and coal.  The consumption of concrete exceeds that of all other construction materials combined. The process of making modern cement and concrete has a heavy environmental penalty, being responsible for roughly 5% of global emissions of CO2.

Scientists explain ancient Rome’s long-lasting concrete

So could the greater understanding of the ancient Roman concrete mixture lead to greener building materials? That is what scientists may have discovered and published in a 2017 study, led by Marie Jackson of the University of Utah.  Their study uncovered the Roman secrets for formulating some of the most long-lasting concrete yet discovered.  Our ability to unlock the secrets of ancient concrete formulas is dependent upon interdisciplinary analytical approaches utilized by the Jackson heat group and could lead to further discoveries that would reduce cement-based carbon emissions.

Unlike the modern concrete mixture which erodes over time, the Roman concrete-like substance seemed to gain strength, particularly from exposure to sea water.  And most importantly, the process generates fewer CO2 emissions and uses less energy and water than “modern”, Portland cement-based concrete.

[sc_icon icon=”chevron-right” shape=”circle” color=”#52a6ea” size=”small” link_target=”_self”] Read the full article here.

The first deal limiting greenhouse gasses from international aviation has been sealed after years of negotiations. Carbon emissions from international aviation will be capped under a global agreement to limit the impact of commercial flights on the climate. The deal launches a voluntary compliance system from 2021 that would become mandatory in 2027. Airlines spent about $181 billion on fuel last year, and this deal would add between $5 and $24 billion in additional costs, depending on the price of carbon at the time. The aviation carbon cuts were agreed in Montreal by national representatives at the International Civil Aviation Organization, ICAO.

The deal comes in a critical week for climate policy when the Paris agreement to stabilize climate change passed a key threshold for becoming law. International aviation is responsible for putting more carbon dioxide into the atmosphere every year than the whole of the Germany or the UK. And until now, there has been no global consensus on how to address aviation emissions.

CO2 will be allowed to grow to 2020, but after that, emissions will need to be offset. The deal will be voluntary to 2026, but most major nations are expected to take part. Airlines that pollute more than the prescribed level after 2020 would have to purchase carbon-offsetting credits.

The offsetting proposal is especially controversial. Airlines are striving to make planes more efficient, but the industry can’t innovate fast enough to contain its dynamic growth.

That led to the proposal for offsetting – but sometimes offsetting by planting trees is not enough and is prone to double-counting.

One way to offset emissions, besides planting trees, is using trees’ and other plants spoils to make sustainable fuels. The effort to use sustainable fuels has already started, and manufacturers and airlines support of alternative fuels is high.

To that end, the US biofuels leader, Amyris, Inc is developing an alternative aviation jet fuel made with a sustainably-sourced hydrocarbon using Amyris’s proprietary synthetic biology platform. It is one of the most promising developments in aviation fuels in decades.

Amyris’ jet fuel can reduce greenhouse gas emissions by up to 80 percent compared with petroleum fuels, when compared unmixed to petroleum fuels on a one-to-one basis, according to Amyris.

Attempts have been made for nearly two decades to include aviation and shipping in the UN’s climate agreements, but both sectors have managed to avoid firm targets.

US EPA earlier this year issued a final scientific assessment that concluded that carbon emissions from aircraft endanger public health and welfare, a legal prerequisite the agency must take before regulating those emissions in the US. It is widely expected that EPA will introduce its set of rules for regulating domestic aircraft emissions in the US. Domestic aviation represents about 40% of total carbon-dioxide output from commercial flights.

Environmental groups said they hope the action to curb airline emissions will spur a similar cap on maritime CO2 production. Maritime emissions aren’t covered by the Paris climate deal even though the industry is considered a major carbon emitter.

All these emissions trackings must be managed and verified and will require companies to install scalable and intelligent database systems like Locus SaaS-based EIM and Locus Platform that already help many companies comply with various emission laws and regulations around the world.

The US Environmental Protection Agency on Monday announced plans to limit carbon emissions from aircraft.

The EPA issued a final scientific assessment that concluded that carbon emissions from aircraft endanger public health and welfare, a legal prerequisite the agency must take before regulating those emissions.

EPA officials said last year when first proposing the aircraft scientific assessment that any regulation would be implemented in coordination with the International Civil Aviation Organization, a branch of the United Nations, which is drafting a global standard for airline carbon emissions.

Emissions from aircraft represent about 2% of total global carbon emissions, and the U.S. is the largest contributor to global aviation greenhouse gasses, according to federal data. The EPA said aircraft are the third-largest source of greenhouse gas emissions in the U.S. transportation sector, accounting for about 3% of such emissions in the country.

EPA has already set effective GHG standards for cars and trucks. EPA anticipates moving forward on standards that would be at least as stringent as ICAO’s standards.

Military and small piston-engine planes often used for recreational purposes would be exempt from the new regulation. Excluding these two categories, the EPA’s scientific finding applies to 89% of all U.S. aircraft carbon emissions.

Airlines for America, the trade association representing U.S. airlines and air cargo carriers, said it commends the EPA’s action because it is working within the coming international framework.

In 2009 the International Air Transport Association, a global trade group, agreed to achieve carbon-neutral growth by 2020, meaning any future growth in air travel wouldn’t produce a net increase in carbon emissions.

Then, from 2020 through 2050, the industry aims to reduce its 2005 emission levels by half, largely through the use of sustainable fuels. The effort to use sustainable fuels has already started, and manufacturers and airlines support of alternative fuels is high.

Carbon management.

EPA to regulate aircraft emissions.

To that end, the US biofuels leader, Amyris, Inc. and oil company Total have partnered to develop an alternative aviation jet fuel made with a sustainably-sourced hydrocarbon using Amyris’s proprietary synthetic biology platform. In 2014, Amyris received industry acceptance and regulatory approval for renewable jet fuel in key U.S., European and Brazilian markets. The New York Times writes that Amyris renewable jet fuel “holds the elusive promise of better energy security, reduced carbon emissions, and lower fuel costs. Amyris’ jet fuel can reduce greenhouse gas emissions by up to 80 percent compared with petroleum fuels, when compared unmixed to petroleum fuels on a one-to-one basis, according to Amyris. Renewable fuels like Amyris farnesane ‘would help reduce the carbon footprint of commercial aviation,’ the Federal Aviation Administration said.”

Amyris announced that, on May 29, 2016, Cathay Pacific commenced a two-year program of flights from Toulouse to Hong Kong using Amyris renewable jet fuel.  The initial 12-hour flight was the longest flight using a renewable jet fuel to date, further underpinning the ‘drop-in’ characteristics of Amyris Biojet fuels. Cathay took delivery of a new Airbus A350-900 that flew from the Airbus facility in Toulouse, France, to Hong Kong using a 10% biofuel jet blend provided by Amyris with the commercial and industrial support of Total S.A. The combination of the new airplane’s improvements in fuel efficiency (about 25% better than current aircraft) and the fuel’s properties resulted in an estimated 30% reduction in CO2 emissions according to Cathay when compared to comparable flights in recent-generation aircraft using fossil fuels.

A recent article in the Los Angeles Times discussed advances in environmental monitoring technologies. Rising calls to create cleaner air and limit climate change are driving a surge in new technology for measuring air emissions and other pollutants — a data revolution that is opening new windows into the micro-mechanics of environmental damage. Data stemming from these new monitoring technologies coupled with advances in data management (Big Data) and Internet of Things (IOT) as discussed in my article “Keeping  the Pulse of the Planet: Using Big Data to Monitor Our Environment” published last year, is creating all new industry and bringing much needed transparency to environmental degradation. Real time monitoring of  radioactive emissions at any point around globe or water quality data are slowly becoming a reality.

According to the article author William Yardley, “the momentum for new monitoring tools is rooted in increasingly stringent regulations, including California’s cap-and-trade program for greenhouse gas emissions, and newly tightened federal standards and programs to monitor drought and soil contamination. A variety of clean-tech companies have arisen to help industries meet the new requirements, but the new tools and data are also being created by academics, tinkerers and concerned citizens — just ask Volkswagen, whose deceptive efforts to skirt emissions-testing standards were discovered with the help of a small university lab in West Virginia.”

“Taking it all into account, the Earth is coming under an unprecedented new level of scrutiny.”

“There are a lot of companies picking up on this, but who is interested in the data — to me, that’s also fascinating,” said Colette Heald, an atmospheric chemist at the Massachusetts Institute of Technology. “We’re in this moment of a huge growth in curiosity — of people trying to understand their environment. That coincides with the technology to do something more.”

The push is not limited to measuring air and emissions. Tools to sample soil, air emissions, produced water, waste management, monitor water quality, test ocean acidity and improve weather forecasting are all on the rise. Drought has prompted new efforts to map groundwater and stream flows and their water quality across the West.

Two of key issues that need to be addressed are validity of data stemming from new instruments and sensors for enforcement purposes and where is all (big) data be stored and how accessible it will be. The first question will be answered as new hand-held data collection instrumentation, sensors, and devices undergo testing and accreditation by governmental agencies. The second issue, a big data, has already been solved by companies like Locus Technologies that has been aggregating massive amounts of environmental monitoring data in its cloud-based EIM (Environmental Information Management) software.

As the article put it: “When the technology is out there and everyone starts using it, the question is, how good is the data? If the data’s not high enough quality, then we’re not going to make regulatory decisions based on that. Where is this data going to reside in 10 years, when all these sensors are out there, and who’s going to [manage] that information? Right now it’s kind of organic so there’s no centralized place where all of this information is going.”

However, the private industry and some Government organizations like Department of Energy (DOE) are already preparing for these new avalanches of data that are hitting their corporate networks and are using Locus cloud to organize and report increased volume of monitoring information stemming from their facilities and other monitoring networks.

In 1997, the world’s first climate change treaty, the Kyoto Protocol, failed to stop the rise of plant-warming pollution. Nearly two decades later, there is new hope for the impending climate change negations that are to occur in Paris next year.

Earlier this month, Obama and Xi Jinping, China’s president, came to an agreement to commit to lowering their nations’ carbon emissions. The ramifications of such a commitment from two of the world’s largest emitters has many environmentalists excited for a shift in global politics.

As David B. Sandalow, Obama’s former assistant secretary for energy policy and international affairs, comments, “For the world’s biggest emitters to be coming together and announcing concrete numbers, serious numbers, sends a signal to the world.” One of the many reasons the Kyoto Protocol is not considered a success is due to a standoff between the two nations who refused to sign the deal in 1997.

The Kyoto plan was meant to force developed countries, such as the United States, to cut fossil fuel emissions, while developing countries like China were exempt. Due to these conditions, the United States refused to ratify the treaty. Since 1997, China has grown to become one of the world’s largest carbon polluters. The standoff between two of the world’s superpowers caused many other governments to refuse to cut emissions as well.

Despite these negotiations, many experts claim that these emissions reductions are not enough to reduce the global atmospheric temperatures. Scientists expect the atmospheric temperature to increase by at least 2 degrees Celsius, tipping the planet into a trend of dangerous warming. Such conditions will result in the loss of large areas of arable land, melting Arctic sea ice and rapidly increasing sea levels, among many other dreadful climate changes.

These Scientists have concluded that in order to avoid such catastrophic conditions, the world’s largest economies must commit to a much more extreme plan of emission reduction, in a much shorter amount of time. Additionally, many Paris deal-negotiating experts claim that in order for significant change to occur, the final deal must include a tax on industries for their carbon emissions.

Although many are hopeful for the upcoming Paris negotiations, others are taking a more pragmatic stance. Laurence Tubiana, France’s climate change ambassador to the United Nations, states that she does not believe the Paris deal will result in a traditional treaty. Tubiana envisions a “Paris Alliance” which she anticipated will resemble a collection of targets pledge by individual countries, as well as governmental pledges to follow through with domestic action.

The opinions on how the Paris deal will pan out are varied; many are not convinced how the agreement between the United States and China will influence other major emitters. Despite these concerns, negotiators can all agree that if the treaty fails to stave off a 2-degree temperature increase, the 2015 deal must include provisions to assist poor countries deal with the resulting climate change.  Rich countries will meet in Berlin to formally announce their pledges for such provisions, with hopes of reaching their $100 billion goal.

This past Tuesday, the United States and China signed eight partnership pacts in an effort to cut greenhouse gas emissions. These pacts involve multiple companies and research bodies and bring the world’s two largest carbon emitters into closer agreement on climate policy.

One memoranda of understanding (MOUs) calls for the sharing of information on clean coal power generation technology between Huaneng Clean Energy Research Institute in China and the Summit Power Group based in Washington. Huaneng is expected to share information with Summit as they begin to initiate a similar project in Texas in the near future. In turn, Summit will share information and technology for recovering oil from captured carbon.

According to Laura Miller, who currently manages Texas Clean Energy Project, “We will be sharing expertise, years of development experience and non-proprietary technology on both projects, all while making giant steps forward for the world’s environment.”

While some pacts were signed by both nations, negotiators on each side recognize the need for more communication between the two in order to come to an agreement in areas of technological cooperation, as well as domestic and international policies, among others. In a recent interview, U.S. Secretary of State John Kerry stated that the two sides remained committed to continuing the “close dialogue” of negotiations on climate change.

China and the U.S. coming to agreement would majorly impact climate change policy across the globe. Both nations also confirm the need for policy decisions implementing aid for developing countries in controlling their emissions in order to create a significant global impact.

These ongoing discussions and changes in climate policy place an emphasis on the need for accurate emissions data collection and reporting. The implementation of new policy and regulations could also lead to an increased demand for emissions data processing and analysis, to which cloud-based, big data management technologies are now available to supply.

Tag Archive for: Carbon Emissions

The Locus GHG calculation engine is fully integrated with the dynamic Locus Platform and will automate emissions calculations for large enterprises.

MOUNTAIN VIEW, Calif., 20 November 2015 — Locus Technologies (Locus), the leader in cloud-based environmental compliance and sustainability management software, introduces an all-new calculation engine to its newest platform to redefine how companies organize, manage, and calculate their greenhouse gas (GHG) inventories. The Locus Platform offers a highly configurable, user-friendly interface to fully meet individual organizations’ environmental management needs.

With an increased focus on the role that GHG emissions play in climate change, ensuring that companies’ emissions are reported accurately is more important than ever. GHG emissions reports are coming under increased scrutiny from regulators, stakeholders, verifiers, and financial auditors. Choosing the right calculation engine plays a critical part in remaining compliant with these rapidly evolving requirements and regulations.

Locus GHG calculation engine eases compliance burdens for GHG tracking

GHG inventories may be the result of mandatory state, regional, or national reporting programs, such as California Air Resource Board (AB32), U.S. EPA Mandatory Reporting Rule, or European Union Emissions Trading Scheme (EU ETS). Organizations need a GHG calculation engine that can calculate GHGs automatically and accurately from all emission-producing activities at all of their facilities anywhere in the world. The new Locus calculation engine supports simultaneous calculations using multiple methods so that users can input data once and report to federal, state, and voluntary reporting programs according to each proper protocol.

“The requirements and procedures for GHG reporting are varied, complex, and rapidly evolving. To ensure compliance, companies need a calculation engine that can handle complex equations using appropriate emission factors, conversion factors, and calculation methodologies for each reporting program. The right calculation engine can reduce the stress, time, and potential inaccuracies found in home-grown accounting methods,” said Neno Duplan, President and CEO of Locus.

New GHG calculation engine removes reporting inaccuracies

As a leading accredited GHG verification company in California, Locus observed challenges that many companies experience with GHG inventory calculation, coupled with the gross inadequacy of tools previously available in the market. Informed by the verification of hundreds of inventories, Locus developed the new calculation engine.

“Besides spreadsheets, many calculation engines are proprietary to software vendors and are not transparent. For GHG calculations to pass audits and meet cap & trade requirements, transparency is absolutely required. Some of these ’black box‘ calculation tools have not been sufficiently stress-tested in the market and are generating errors that cause enterprises to fail their GHG verifications. Locus’ calculation engine addresses these deficiencies and capitalizes on the architecture of the highly scalable Locus platform. All calculations are viewable and traceable through the tool to the original data inputs,” said J. Wesley Hawthorne, Locus’ Senior Vice President of Operations and an accredited GHG verifier.

When evaluating carbon management software with built-in calculation engines, companies must ensure that users are able to define both the calculation rules and display of calculated data for the purpose of reporting to various regulators. By giving end users the power to view, analyze, and make changes to analytic model data, Locus helps companies emphasize the transparency of the process and ensure that calculations are correct and that the company meets all verification requirements.

“We listened to industry users and created a configurable calculation engine that is easy to use, dynamically driven, transparent, provides reproducible calculations, and is easy to verify. This calculation engine, along with the Locus Platform, will improve companies’ data collection, analysis, and most importantly, reporting capabilities,” added Duplan.

Locus will conduct live demonstrations of the Locus Platform and calculation engine at the Locus booth at the National Association for Environmental Management (NAEM) 2016 Sustainability Software and Data Management Conference from March 15-16, 2016 in Tampa, FL.