LED Savings Estimator for Common Commercial Lighting Fixtures


energy savings calculator

With the recent increase in electricity rates, it has never been more important for electrical contractors to show your customers some LED options.  Everyone knows that LED lighting fixtures are more energy efficient, last longer, and require less maintenance and replacement.  However, there will still be commercial customers and business owners who are nervous about the upfront costs associated with a full retrofit or new installation.

While some money will be spent upfront purchasing new LED fixtures, the savings associated with the reduced wattage fixtures can rapidly offset the initial costs.  And with rebates available for commercial customers of NGRID, NSTAR, WMECO, Unitil and Cape Light Compact, your customers will see a return on investment in a short period time with energy savings for years to come.

The Energy group at Granite City Electric is available to work with you on any new construction or retrofit project to ensure all…

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Focus on financing energy efficiency

“EEFIG’s report states that energy efficiency investment is the most cost effective manner to reduce the EU’s reliance, and expenditure, on energy imports costing over €400 billion a year. Today, this makes energy efficiency investments strategically important due to high levels of energy imports, energy price instability and the need for Europe to transition to a competitive low carbon and resilient economy. EEFIG’s members see energy efficiency investing as having a fundamental and beneficial role to play in the transition towards a more competitive, secure and sustainable energy system with an internal energy market at its core.

EEFIG participants believe that the European Fund for Strategic Investments (EFSI) should put energy efficiency first and that it is essential in the context of the Energy Union to reframe the role that energy efficiency plays in how Europe plans for, finances, and constructs its energy system.”

Energy in Demand - Sustainable Energy - Rod Janssen

When we are discussing the EU’s energy efficiency strategy, the elephant in the room is money: where does the funding come from and will there be enough to meet investment needs. On the one hand, most energy efficiency measures are considered to be cost effective and thus it is in the interest of consumers to take such action. However, energy efficiency investments can often have a high up-front cost, making it difficult to justify such expenditure in a fragile economic situation.

The European Commission and the UNEP Finance Initiative set up a group of experts to address that elephant in the room, knowing that the elephant would not go away until there was a sustainable way forward. That group has now produced a major report that goes a long way to address this need.

The Energy Efficiency Financial Institutions Group (EEFIG) has just launched its final report “Energy Efficiency –…

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Amager Resource Center Copenhagen, Designed by Bjarke Ingels Group (BIG)

The waste-to-energy plant in Copenhagen was selected as a citation winner in the 62nd Annual Progressive Architecture Awards.

Source: www.architectmagazine.com

“BIG won the competition for the 1.02 million-square-foot Amager Resource Center with this widely touted scheme, which promises to turn a waste-to-energy plant into a popular attraction. By integrating a ski slope into the roof and a rock-climbing wall up one face, the architects build upon the project’s location: a part of Copenhagen on the island of Amager that has become a destination for extreme sports enthusiasts, thanks to its parks, beaches, dunes, and a lagoon for kayaking and windsurfing.  At 100 meters tall, the center will be one of the city’s tallest landmarks when completed—and a striking example of building-as-landscape. Indeed, the client has taken to calling it the Amager Bakke, or Amager Hill.”

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Duke’s maligned handling of toxic coal ash is claimed typical for industry

Over 200 contaminations and spills document water contamination and deformed fish near coal ash sites.

Source: www.utilitydive.com

>” Duke Energy faces criminal charges and a $100 million fine for a 2014 spill of 39,000 tons of coal ash into North Carolina’s Dan River but environmental activists say its mishandling of coal ash waste is not atypical of the coal industry.  […] EPA released a final ruling on handling coal ash last December but both utility industry and environmental groups were dissatisfied. It creates requirements and standards for the management of coal combustion residuals (CCRs or coal ash) under Subtitle D of the federal Resource Conservation and Recovery Act (RCRA). That subtitle governs solid waste. There is not yet adequate data, the EPA said, to justify managing coal ash under Subtitle C of RCRA, which pertains to hazardous waste.

“Coal ash is a toxic soup of heavy metals,” said NC WARN Energy Expert Nancy LaPlaca. “Pretending it is not hazardous waste is outrageous.”

Utilities are “pleased” that the EPA found it did not have adequate information to regulate coal as hazardous waste, explained Schiff, Hardin Partner/Utilities Counsel Josh More. But “EPA is pretty explicit this is not their final determination.” It failed, he added, because “it is a self-implementing program.”  […]”<


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Wide Bandgap Semiconductors – LED’s and the Future of Power Electronics

Hidden inside nearly every modern electronic is a technology — called power electronics — that is quietly making our wor…

Source: www.youtube.com

See on Scoop.itGreen Energy Technologies & Development


“Hidden inside nearly every modern electronic is a technology — called power electronics — that is quietly making our world run. Yet, as things like our phones, appliances and cars advance, current power electronics will no longer be able to meet our needs, making it essential that we invest in the future of this technology.

Today [January 15, 2014], President Obama will announce that North Carolina State University will lead the Energy Department’s new manufacturing innovation institute for the next generation of power electronics. The institute will work to drive down the costs of and build America’s manufacturing leadership in wide bandgap (WBG) semiconductor-based power electronics — leading to more affordable products for businesses and consumers, billions of dollars in energy savings and high-quality U.S. manufacturing jobs.

Integral to consumer electronics and many clean energy technologies, power electronics can be found in everything from electric vehicles and industrial motors, to laptop power adaptors and inverters that connect solar panels and wind turbines to the electric grid. For nearly 50 years, silicon chips have been the basis of power electronics. However, as clean energy technologies and the electronics industry has advanced, silicon chips are reaching their limits in power conversion — resulting in wasted heat and higher energy consumption.

Power electronics that use WBG semiconductors have the potential to change all this. WBG semiconductors operate at high temperatures, frequencies and voltages — all helping to eliminate up to 90 percent of the power losses in electricity conversion compared to current technology. This in turn means that power electronics can be smaller because they need fewer semiconductor chips, and the technologies that rely on power electronics — like electric vehicle chargers, consumer appliances and LEDs — will perform better, be more efficient and cost less.

One of three new institutes in the President’s National Network of Manufacturing Innovation, the Energy Department’s institute will develop the infrastructure needed to make WBG semiconductor-based power electronics cost competitive with silicon chips in the next five years. Working with more than 25 partners across industry, academia, and state and federal organizations, the institute will provide shared research and development, manufacturing equipment, and product testing to create new semiconductor technology that is up to 10 times more powerful that current chips on the market. Through higher education programs and internships, the institute will ensure that the U.S. has the workforce necessary to be the leader in the next generation of power electronics manufacturing.

Watch our latest video on how wide bandgap semiconductors could impact clean energy technology and our daily lives.”

source:  http://energy.gov/articles/wide-bandgap-semiconductors-essential-our-technology-future


Clothes Dryers Latest Home Appliance to Obtain Energy Star Certification

For the first time in six years, Energy Star certification, a standard seal of approval for energy efficiency, has been expanded to include another major household appliance. Clothes dryers, perhaps the last of …

Source: www.pddnet.com

>” […] Clothes dryers, perhaps the last of the major household appliances to be included in the U.S. Environmental Protection Agency’s program, became available in 45 Energy Star models starting Presidents’ Day weekend, according to the EPA.

“Dryers are one of the most common household appliances and the biggest energy users,” said EPA Administrator Gina McCarthy.

While washing machines have become 70 percent more energy-efficient since 1990, dryers — used by an estimated 80 percent of American households — have continued to use a high amount of energy, the agency says. […]

“Refrigerators were the dominant energy consumer in 1981. Now dryers are the last frontier in the home for radical energy conservation,” said Charles Hall, senior manager of product development for Whirlpool.

Energy Star-certified dryers include gas, electric and compact models. Manufacturers offering them include LG, Whirlpool, Kenmore, Maytag and Safemate.

All of the energy-efficient models include moisture sensors to ensure that the dryer does not continue running after the clothes are dry, which reduces energy consumption by around 20 percent, the EPA says.

In addition, two of the Energy Star-approved models — LG’s EcoHybrid Heat Pump Dryer (model DLHX4072) and Whirlpool’s HybridCare Heat Pump Dryer (model WED99HED) — also include innovative “heat pump” technology, which reduces energy consumption by around 40 percent more than that, the EPA and manufacturers say.

Heat-pump dryers combine conventional vented drying with heat-pump technology, which recycles heat. The technology, long common in much of Europe, is similar to that used in air conditioners and dehumidifiers.

Although Energy Star models can cost roughly $600 more than comparable standard models, Hall said the higher cost is more than balanced out by energy savings and up to $600 rebates offered by government and utility incentive programs.

But the real impact will be felt once the transition to Energy Star models is complete. According to the EPA, if all the clothes dryers sold in the U.S. this year were Energy Star-certified, it would save an estimated $1.5 billion in annual utility costs and prevent yearly greenhouse-gas emissions equal to more than 2 million vehicles.

To earn the Energy Star label, products must be certified by an EPA-recognized third party based on rigorous testing in an EPA-recognized laboratory.”<

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Vanadium Flow Battery Competes With Lithium and Lead-Acid at Grid Scale

The company claims LCOE [Levelized Cost of Energy] is less than half the cost of any other battery technology available.

Source: www.greentechmedia.com


Imergy Power Systems just introduced its third-generation vanadium flow battery, claiming it offers a low-cost, high-performance energy storage solution for large-scale applications, including peak demand management, frequency regulation and the integration of intermittent renewable energy sources.

The ESP250 has an output power capability of 250 kilowatts and 1 megawatt of energy storage capacity. It’s suited for both short- and long-duration storage, with available energy ranging from two to 12 hours of output duration. The 40-foot batteries (each about the size of two shipping containers) are designed to be deployed individually or linked together for larger-scale projects. […]

Where Imergy has been able to edge out its competitors is on material cost. Vanadium is abundant but expensive to extract from the ground. Imergy has developed a unique chemistry that allows it to use cheaper, recycled resources of vanadium from mining slag, fly ash and other environmental waste.

With this chemistry, the levelized cost of energy for Imergy’s batteries is less than half of any other battery on the market right now, according to Hennessy. Vanadium flow batteries are orders of magnitude cheaper than lithium-ion batteries on a lifetime basis because they can be 100 percent cycled an unlimited number of times, whereas lithium-ion batteries wear down with use, according to the firm. Despite the compelling cost claims from Imergy, lithium-ion has been the predominant energy storage technology being deployed at this early point of the market. And very few flow batteries are currently providing grid services.

Imergy’s capital costs are lower than every other battery technology except lead-acid, Hennessy added. But he believes the company can hit that mark (roughly $200 per kilowatt-hour) by the end of the year by outsourcing contracts to manufacturing powerhouse Foxconn Technology Group in China. Delivery of the ESP250 is targeted for summer of 2015.

At this price, Imergy says the ESP250 offers an affordable alternative to peaker plants and can help utilities avoid investing more capital in the grid. Some might disagree with the claim that grid-scale storage can compete with fast-start turbines and natural gas prices below $3 per million Btu. But according to Hennessy, it all comes down to the application. Batteries can’t compete with gas at the 50-megawatt scale, but they can compete with gas at the distribution level.

“Batteries that are distributed have a huge advantage over gas, because when you buy gas down at the low end, you’re paying a lot more than $3 to $4 per MMBtu, because you’ve got to pay for all the transmission down to the small end,” he said.

Demand for cost-effective energy storage is growing as intermittent renewables become cheaper and come on-line in higher volumes. GTM Research anticipates the solar-plus-storage market to grow from $42 million in 2014 to more than $1 billion by 2018.

Imergy sees a ripe market in the Caribbean, parts of Africa and India, Hawaii and other places where the LCOE for solar-plus-storage is already competitive. As costs continue to fall, New York, California and Texas will also become attractive markets.”<


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Life-Cycle Cost Analysis (LCCA) | Whole Building Design Guide

Life-cycle cost analysis (LCCA) is a method for assessing the total cost of facility ownership. It takes into account all costs of acquiring, owning, and disposing of a building or building system. LCCA is especially useful when project alternatives that fulfill the same performance requirements, but differ with respect to initial costs and operating costs, have to be compared in order to select the one that maximizes net savings.

Source: www.wbdg.org


A. Life-Cycle Cost Analysis (LCCA) Method

The purpose of an LCCA is to estimate the overall costs of project alternatives and to select the design that ensures the facility will provide the lowest overall cost of ownership consistent with its quality and function. The LCCA should be performed early in the design process while there is still a chance to refine the design to ensure a reduction in life-cycle costs (LCC).

The first and most challenging task of an LCCA, or any economic evaluation method, is to determine the economic effects of alternative designs of buildings and building systems and to quantify these effects and express them in dollar amounts.


Viewed over a 30 year period, initial building costs account for approximately just 2% of the total, while operations and maintenance costs equal 6%, and personnel costs equal 92%.
Graphic: Sieglinde Fuller
Source: Sustainable Building Technical Manual / Joseph J. Romm,Lean and Clean Management, 1994.

B. Costs

There are numerous costs associated with acquiring, operating, maintaining, and disposing of a building or building system. Building-related costs usually fall into the following categories:lcca_5

Initial Costs—Purchase, Acquisition, Construction Costs

Fuel Costs,

Operation, Maintenance, and Repair Costs

Replacement Costs; Residual Values—Resale or Salvage Values or Disposal Costs, Finance Charges—Loan Interest Payments

Non-Monetary Benefits or Costs

Only those costs within each category that are relevant to the decision and significant in amount are needed to make a valid investment decision. Costs are relevant when they are different for one alternative compared with another; costs are significant when they are large enough to make a credible difference in the LCC of a project alternative. All costs are entered as base-year amounts in today’s dollars; the LCCA method escalates all amounts to their future year of occurrence and discounts them back to the base date to convert them to present values. […]

Energy and Water Costs

Operational expenses for energy, water, and other utilities are based on consumption, current rates, and price projections. Because energy, and to some extent water consumption, and building configuration and building envelope are interdependent, energy and water costs are usually assessed for the building as a whole rather than for individual building systems or components.

Energy usage: Energy costs are often difficult to predict accurately in the design phase of a project. Assumptions must be made about use profiles, occupancy rates, and schedules, all of which impact energy consumption. At the initial design stage, data on the amount of energy consumption for a building can come from engineering analysis or from a computer program such as eQuest.ENERGY PLUS (DOE), DOE-2.1E and BLAST require more detailed input not usually available until later in the design process. Other software packages, such as the proprietary programs TRACE (Trane), ESPRE (EPRI), and HAP (Carrier) have been developed to assist in mechanical equipment selection and sizing and are often distributed by manufacturers.

When selecting a program, it is important to consider whether you need annual, monthly, or hourly energy consumption figures and whether the program adequately tracks savings in energy consumption when design changes or different efficiency levels are simulated.  […]

Operation, Maintenance, and Repair Costs

(Courtesy of Washington State Department of General Administration)

Non-fuel operating costs, and maintenance and repair (OM&R) costs are often more difficult to estimate than other building expenditures. Operating schedules and standards of maintenance vary from building to building; there is great variation in these costs even for buildings of the same type and age. It is therefore especially important to use engineering judgment when estimating these costs.

Supplier quotes and published estimating guides sometimes provide information on maintenance and repair costs. Some of the data estimation guides derive cost data from statistical relationships of historical data (Means, BOMA) and report, for example, average owning and operating costs per square foot, by age of building, geographic location, number of stories, and number of square feet in the building. The Whitestone Research Facility Maintenance and Repair Cost Reference gives annualized costs for building systems and elements as well as service life estimates for specific building components. The U.S. Army Corps of Engineers, Huntsville Division, provides access to a customized OM&R database for military construction (contact: Terry.L.Patton@HND01.usace.army.mil).

Replacement Costs

The number and timing of capital replacements of building systems depend on the estimated life of the system and the length of the study period. Use the same sources that provide cost estimates for initial investments to obtain estimates of replacement costs and expected useful lives. A good starting point for estimating future replacement costs is to use their cost as of the base date. The LCCA method will escalate base-year amounts to their future time of occurrence.

Residual Values

The residual value of a system (or component) is its remaining value at the end of the study period, or at the time it is replaced during the study period. Residual values can be based on value in place, resale value, salvage value, or scrap value, net of any selling, conversion, or disposal costs. As a rule of thumb, the residual value of a system with remaining useful life in place can be calculated by linearly prorating its initial costs. For example, for a system with an expected useful life of 15 years, which was installed 5 years before the end of the study period, the residual value would be approximately 2/3 (=(15-10)/15) of its initial cost.

Other Costs

Finance charges and taxes: For federal projects, finance charges are usually not relevant. Finance charges and other payments apply, however, if a project is financed through an Energy Savings Performance Contract (ESPC) or Utility Energy Services Contract (UESC). The finance charges are usually included in the contract payments negotiated with the Energy Service Company (ESCO) or the utility.

Non-monetary benefits or costs: Non-monetary benefits or costs are project-related effects for which there is no objective way of assigning a dollar value. Examples of non-monetary effects may be the benefit derived from a particularly quiet HVAC system or from an expected, but hard-to-quantify productivity gain due to improved lighting. By their nature, these effects are external to the LCCA, but if they are significant they should be considered in the final investment decision and included in the project documentation. See Cost-Effective—Consider Non-Monetary Benefits.

To formalize the inclusion of non-monetary costs or benefits in your decision making, you can use the analytical hierarchy process (AHP), which is one of a set of multi-attribute decision analysis (MADA) methods that consider non-monetary attributes (qualitative and quantitative) in addition to common economic evaluation measures when evaluating project alternatives. ASTM E 1765 Standard Practice for Applying Analytical Hierarchy Process (AHP) to Multi-attribute Decision Analysis of Investments Related to Buildings and Building Systems published by ASTM International presents a procedure for calculating and interpreting AHP scores of a project’s total overall desirability when making building-related capital investment decisions. A source of information for estimating productivity costs, for example, is the WBDG Productive Branch.  [….]

D. Life-Cycle Cost Calculation

After identifying all costs by year and amount and discounting them to present value, they are added to arrive at total life-cycle costs for each alternative:

LCC =  I + Repl — Res + E + W + OM&R + O

LCC = Total LCC in present-value (PV) dollars of a given alternative
I = PV investment costs (if incurred at base date, they need not be discounted)
Repl = PV capital replacement costs
Res = PV residual value (resale value, salvage value) less disposal costs
E = PV of energy costs
W = PV of water costs
OM&R = PV of non-fuel operating, maintenance and repair costs
O = PV of other costs (e.g., contract costs for ESPCs or UESCs)

E. Supplementary Measures

Supplementary measures of economic evaluation are Net Savings (NS), Savings-to-Investment Ratio (SIR), Adjusted Internal Rate of Return (AIRR), and Simple Payback (SPB) or Discounted Payback (DPB). They are sometimes needed to meet specific regulatory requirements. For example, the FEMP LCC rules (10 CFR 436A) require the use of either the SIR or AIRR for ranking independent projects competing for limited funding. Some federal programs require a Payback Period to be computed as a screening measure in project evaluation. NS, SIR, and AIRR are consistent with the lowest LCC of an alternative if computed and applied correctly, with the same time-adjusted input values and assumptions. Payback measures, either SPB or DPB, are only consistent with LCCA if they are calculated over the entire study period, not only for the years of the payback period.

All supplementary measures are relative measures, i.e., they are computed for an alternative relative to a base case.  […]”<

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Comments on Improving EPA’s Proposed Clean Power Plan

The summer deadline is approaching for finalizing the Environmental Protection Agency’s first-ever limits on dangerous carbon pollution from the nation’s power plants, and opponents are ratcheting up their complaints….

Source: www.huffingtonpost.com

“> […] Some 1500 mostly coal- and gas-fired power plants spew out more than two billion tons of heat-trapping carbon dioxide each year — 40 percent of the nation’s total. The vast majority of the millions of public comments submitted last fall express strong support for the Clean Power Plan, which as proposed last June starts in 2020 and ramps emissions down gradually over the next decade.

But big coal polluters and their political allies have big megaphones.

Many hope to kill the proposal outright. But for others the back-up agenda is to get the standards weakened and delayed past 2020. Their comments and speeches read like Armageddon is coming if power plants have to start limiting their carbon pollution in 2020 — five years from now. Republican members of the Senate environment committee banged that drum over and over at a hearing last week. As on so many issues, they hope endless repetition will make their story seem true.

The truth is that the standards and timeline EPA proposed last June are quite modest and readily achievable. They can be met without any threat to the reliability of electric power. A new report from the highly respected Brattle Group shows that states can meet the EPA’s proposal “while maintaining the high level of electric reliability enjoyed by U.S. electricity customers.” […]

The plan as proposed in June sets state-by-state targets that, on an overall national basis, would cut power plants’ carbon pollution by 26 percent by 2020 and 30 percent by 2030, when compared to 2005 levels.

We found that with three specific improvements – I’ll describe them below – the plan could achieve 50 percent more carbon pollution reductions (36 percent by 2020 and 44 percent by 2030).

Here are the three factors:

First, the costs of clean energy are falling dramatically, and EPA’s June proposal was based on out of date cost and performance data for renewable electricity and efficiency energy. An NRDC issue brief published last fall details how sharply the cost and performance of energy efficiency and renewable energy have improved. When we factored in up-to-date data, our analysis shows that the Clean Power Plan’s state-by-state targets as proposed in June 2014 can be met at a net savings to Americans of $1.8-4.3 billion in 2020 and $6.4-9.4 billion in 2030. More reliance on energy efficiency and renewables will also create hundreds of thousands of good-paying jobsthat can’t be shipped overseas.

The lower cost of clean energy technologies opens the door to getting substantially more carbon pollution reductions from the nation’s largest emitters.

We also took two other specific improvements into account:

In an October 2014 notice seeking further public comment, EPA explained that the formula it had used to calculate state targets in the June 2014 proposal did not correctly account for the emission reductions made by renewables and energy efficiency. The formula did not fully account for the reduction in generation at coal and gas power plants that occurs when additional renewables are added to the grid and when businesses and homeowners reduce how much electricity they need by improving the efficiency of our buildings, appliances, and other electricity-using equipment. NRDC corrected the formula in our updated analysis to capture the full emission reduction associated with ramping up renewables and efficiency.EPA also asked for comment on an approach to better balancing state targets by adopting a minimum rate of transition from older high-emitting generation to lower-emitting sources. NRDC analyzed state targets that include conversion of 20 percent of coal generation in 2012 to natural gas generation over the period between 2020 and 2029.

These three factors — updating the cost and performance data for renewables and efficiency, correcting the target-setting formula, and including a minimum rate of transition from higher- to lower-emitting plants — produce the substantial additional carbon pollution reductions in our analysis, all at very reasonable costs. […]”<


See EPA’s Clean Power Plan:  http://www2.epa.gov/carbon-pollution-standards/clean-power-plan-proposed-rule


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Plastic Packaging Waste in Food Industry

Food packaging today is as wasteful as it was 30 years ago and in some cases, it’s worse, a new report by a non-profit group indicates.

Source: www.cbc.ca

>” Many people take time to separate recyclables and compostables from the garbage. But according to a new report, the food industry isn’t doing enough to help.

The food we eat is often packaged in unrecyclable or difficult-to-recycle materials, says the report from a non-profit group called As You Sow. The group, which promotes environmental and social corporate responsibility, said only about half of consumer packaging in the U.S. ends up being recycled, and the rest ends up as litter or in a landfill. […]

As You Sow surveyed 47 fast-food chains, beverage companies, and consumer goods and grocery companies in the U.S. — most of which sell their products in Canada — including McDonald’s, Coca-Cola, Domino’s pizza and Heineken. It found food packaging today isn’t much better than it was 30 years ago. In some cases, it’s worse.

Shift from glass to plastic

Report author Conrad MacKerron said there has been a shift away from polystyrene since the ’80s, but there has also been a move away from glass, and towards plastic.

“We think it’s of particular concern because of the contribution to plastic pollution in the oceans,” he said. “Plastic litter from takeout orders … plastic cups, straws, plates and so forth contribute to plastic litter, but it is all swept off into waterways and oceans, where they degrade and harm marine life.”

Plastic is the fastest-growing form of packaging, but only 14 per cent is recycled, the report indicates.

MacKerron said a lot of plastics are recyclable. But some, like black Category 7 plastics, require specialized equipment. And even some of the stuff that should be easily recycled just never is.

“So our major finding is that leading beverage, fast-food and packaged good companies are coming significantly short of where they should be when it comes to addressing the environmental aspects of packaging,” MacKerron said.  […]

The biggest offender might just be your morning cup of coffee. It used to produce zero waste, apart from some ground beans and maybe a compostable paper filter.

These days, millions of households are equipped with single-cup brewing machines. The largest company behind those machines, Keurig, produced 9.8 billion little plastic single-serve coffee pods last year, known as K-Cups.

Mike Hachey, the CEO of Egg Studios, is running a campaign that he’s dubbed ‘kill the K-Cup’, in an effort to curb the rise of the single-serve coffee machine.

“We started out with Keurig machines in our offices… and very quickly realized that this packaging is a problem,” he explained.

So while we may be free of the once ubiquitous Styrofoam container, we’ve grown accustomed to a lot of food packaging that isn’t a whole lot better.”<


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