Energy Consumption And Healthcare – What does treatment really cost.

The basic problem in the beginning of the conservation movement (energy) was no one knew how much energy was being used and thus how much could be saved. The same is true in spades for medicine. Think about it, how much does an xray cost? No one knows. So how much energy does an xray take? When you ask you get answers like this…

http://greenanswers.com/q/72578/science-technology/how-much-energy-does-it-take-make-x-ray

seanm (881) 3/10/10 10:37am

This is a good question and the answer varies depending on the type of X-ray machines you’re talking about. Traditionally X-rays have only been possible with a high voltage generation, which takes a lot of energy, anywhere from 30 to 150 kV. By comparison, high-voltage electric transmission lines operate at about 110 kV, so we’re talking about a lot of power. However, X-rays can be exposed in tiny fractions of seconds and since the 1980s technology has advanced to make X-rays even faster so as to reduce the exposure of operators and patients to radiation. I could not find specific energy consumption ratings on various X-ray machines, but there are efforts afoot to replace traditional X-ray machines with digital ones, which in addition to eliminating the need to keep film and developer on hand will reduce energy consumption by up to 78%.

Citations: http://en.wikipedia.org/wiki/X-ray_tube
http://www.gereports.com/picturing-the-benefits-of-digital-x-rays/

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say what…

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or an mri (they routinely charge 2 to 3 thousand $$$)???

http://answers.yahoo.com/question/index?qid=20080908210925AA26KhC

How electricity does an Xray or MRI machine use per scan? How much does it cost the Hospital?

My brother insists that it takes a LOT of electricity in order to power and Xray or MRI machine just for one scan. He thinks it uses more than a normal household uses per month. I doubt that. Does anyone know how much is used or how much it costs? No guesses please…my other brother loves to answer questions with guess-answers because he thinks he’s probably always right…conveniently nobody ever has a computer when he gives these questionable answers and nobody remembers what he said

answer1

Best Answer – Chosen by Voters

The amount of energy used will always be constant on the machines the only way to solve this problem is to determine where the machines are used to get kilowatt costs as they are more expensive in some areas of the country. Once you determine that factor it will be easy to solve the equation.

answer2

Here is a listing of a typical “open” MRI Model describing the power consumption:
Manufactured by Esaote S.p.A.; a low field open MRI scanner with permanent magnet for orthopedic use. The outstanding feature of this MRI system is a patient friendly design with 24 cm diameter, which allows the imaging of extremities and small body parts like shoulder MRI. The power consumption is around 1.3 kW and the needed minimum floor space is an area of 16 sq m.

So it uses about 1.3kW to run. The usual power outlet is 480 volts/3 phase/125 amps. It uses more power (up to 2kW) when the magnet is on. Keep in mind that this is considered a ‘small’ MRI machine. Larger units weigh up to 12 tons and are assembled on site in phases.

Typical US 3-prong outlet is 125 volts/15 amps.

A typical US household uses approximately 8900 kW per year. So one MRI scanner consumes approximately several dozen households worth per year depending on how often it’s used.

Source(s):

RN

answer3

X ray machines draw a lot of power for a very short time, a few seconds. So overall power consumption is low. MRI is no different.
Overall, the consumption would depend on how much it is used. If the X ray machine is being used for 1000 films, the consumption would be equal to a household consumption.

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The point being that we have no idea what our healthcare costs and doctors want to keep it that way.

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Energy Concerns And Healthcare

The medical and healthcare industries use energy like there was no tomorrow. I estimate that the US could save at least 20% on its healthcare bills. For those of you in small towns…how much do you waste on driving to your doctor? Why don’t the hospitals put a telecommunications computer in your city or town hall? That way you can call in, get an appointment, walk down to City Hall and talk to your doctor. Even show him where you hurt. To say the medical community is stodgy is wrong…it is too smart for its own britches.

http://www.matmanmag.com/matmanmag_app/jsp/articledisplay.jsp?dcrpath=MATMANMAG/Article/data/11NOV2008/0811MMH_FEA_Purchasing&domain=MATMANMAG

The bright side of energy conservation
Using renewable sources saves money, reduces emissions

By Gina Pugliese and Nick DeDominicis

QUICK TAKE>>>
Hospitals are behind other industries in employing energy conservation initiatives, including the use of renewable energy sources. But times are changing as they realize that wasted energy drains their bottom lines and that they have a responsibility to reduce their carbon footprint for the health of the environment and surrounding communities. Energy-saving initiatives require multidepartmental collaboration within a hospital; and materials managers need to ensure they are a part of that because their expertise can make a difference.

According to the Environmental Protection Agency (EPA), every dollar a not-for-profit health care organization saves on energy is equivalent to generating $20 in new revenue for hospitals or $10 for medical offices. So why aren’t all hospitals jumping into energy conservation with both feet? There are many reasons. But this is certain: Most hospitals recognize that energy conservation is a priority and are gradually realizing the benefits, both to their bottom line and the environment.

On impact

Energy issues have an impact on virtually every aspect of health care. Demands for energy and the costs for providing it, are escalating rapidly. And those costs are not confined to higher utility, transportation and supply bills, but also the gradual destruction of the environment. Our nation’s dependence on fossil fuels has led to a documented rise in global warming caused by greenhouse gas emissions, as well as potentially negative health consequences for patients and workers.

Demand for energy is soaring across all sectors of the American economy. In fact, a recent Department of Energy survey of 20 major companies concluded that global demand for energy resources will rise dramatically—nearly 60 percent—throughout the next 25 years.

Senior executives from 20 major companies attending a 2007 workshop hosted by the EPA and Global Business Network estimated that  electricity demand in the United States alone will grow by at least 40 percent throughout the next 25 years, requiring at least 300 power plants to be built over that time. Such demands have led to an unprecedented rise in energy costs, which have surged dramatically and put a significant financial strain on hospitals. In some areas of the United States, energy costs have grown by more than 60 percent in the past few years.

The Energy Information Administration’s data show that the health care industry spends an estimated $7.4 billion on energy ($5.3 billion for inpatient and $2.1 billion for outpatient facilities). More than 90 percent of hospitals surveyed recently by Healthcare Financial Management magazine reported higher energy costs over the previous year, and more than half cited double-digit increases.

Greenhouse gas (GHG) emissions result from our nation’s reliance on nonrenewable sources of energy—fossil fuels, coal, oil and natural gas—that accelerate global warming and climate change; and there is much debate about how to curb such trends. GHG emissions, which include carbon dioxide, methane and nitrous oxide, also are increasingly linked to a host of serious public health consequences such as depletion of our planet’s fresh water supply and respiratory ailments.

Conservation now

Health care is a veritable energy hog. Whether from heating and cooling air and water, lighting spaces or transporting goods and services, the industry is heavily reliant on energy from mostly conventional nonrenewable sources.

According to the EPA, inpatient health care is the second most energy intensive industry in the United States (second only to the food service industry), gobbling up more than twice as much energy per square foot as nonhealth care office buildings. Buildings alone are responsible for almost half of the energy consumed in the United States and 48 percent of all GHG emissions. Hospitals alone use 836 trillion British thermal units (BTUs) of energy annually, have more than 2.5 times the energy intensity and CO2 emissions of commercial office buildings and are consistently within the top 10 water users in their communities.

Second, the calls for change are based on economic survival. Energy costs are soaring in the health care industry. A recent Department of Energy report found that rising energy prices and hospitals’ increasing energy demands have escalated costs so much that hospitals’ energy bills consume up to 3 percent of their total operating budgets, and up to at least 15 percent of their annual profits. Such phenomena are exacerbated by the added cost of running outdated and energy inefficient building systems.

Third, calls for energy conservation in health care are becoming louder because of hospitals’ ethical duty to protect public health. Many observers believe that the health care industry contributes disproportionately to the detrimental public health consequences of climate change. To keep true to its mandate—first, do no harm—hospitals today increasingly are turning their attention to change practices that can potentially jeopardize patient and worker safety. Increasing public concerns about climate change and its potential health, economic and security consequences are helping to shape the industry’s attitude toward climate change.

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dot dot dot…as they say…the headlines say it all:

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Behind the times

Although hospitals lag behind other industries in implementing energy-efficient strategies, there are numerous national initiatives focusing on health care, including a two-year-old initiative called E2C (Energy Efficient Challenge) that was launched by the American Society for Healthcare Engineering (ASHE) to support the goals of EPA’s Energy Star Challenge Program, says Dale Woodin, ASHE executive director. Woodin explains that this lag is often due to the lack of available capital, expertise and resources, and a need for greater awareness and support from senior health care leaders.

Health care companies in general also spend a smaller portion of their total expenses on energy, meaning fewer dollars are available to make far-reaching improvements. Rising energy costs are squeezing operating margins and diverting money needed for critical health care quality and safety improvements.

In essence, the primary driver is saving money. According to the American College of Healthcare Executives, 67 percent of health care CEOs list financial challenges as their No. 1 concern. However, operating costs and competition for investment and capital improvement funds often restrict available funding for energy improvements.

In addition, alternative energy sources have traditionally been scarce and expensive. For example, only 7 percent of the entire U.S. energy consumption is from renewable energy sources, including biofuels such as ethanol, solar, hydroelectric and wind power.

The health care industry is less open than other industries to the use of renewable energy sources, and few health care organizations have publicly stated carbon reduction goals.

A recent Johnson Controls survey of various industries found that only 38 percent of health care organizations had either invested in or were exploring renewable technologies, compared with 68 percent across other industries.

Catching up

Recently, the health care sector has begun to transform its core practices in response to the scientific confirmation of the link between climate change and health. Health care organizations are placing a growing importance on initiatives such as energy management, and while they are less likely than other industries to achieve green certification, they are more likely to implement green features without pursuing formal certification.

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Physician heal thyself.

Healthcare Is Not Prepared For Peak Oil – In fact it throws our money out the window

This article is about a year old and it makes points that have been made before, such as:

1. The medical field is not prepared for Global Warming. Our Healthcare system world wide will not be able to cope with the shift in and increase in what are largely thought of as tropical diseases today.

2. Medical Communty’s contribute to Global Warming through inefficiencies.

They also make the point that whether you believe in Peak Oil or not,  Healthcare is addicted to Oil.

3. The pharmaceutical industry’s dependence on Oil would cause it to collapse if oil supplies became restricted or suffered a huge price increase.

4. Hospitals are dependent on electricity (coal) for their medical practices and have very little flexibility built into their practice. eg. No xrays, then what?

But the most telling part for me is the following.

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http://www.greens.org/s-r/45/45-05.html

Medicine at the Crossroads of Energy
and Global Warming

by Dan Bednarz, Ph.D., and Kristin Bradford, M.D., M.P.H.

The difficult thing now is there’s no [longer any] low-hanging fruit. — Roger Elliott, St. Joseph’s Hospital, Chippewa Falls, WI, on efforts to reduce hospital energy costs.

[A]ny field … should be judged by the degree to which it understands, anticipates, and takes action in regard to changes in society. — Bernard Sarason, The Making of an American Psychologist

dot dot dot (as they say)

A given in hospital operations is unlimited inputs of energy and resources; this results in waste in the name of hygiene, insurance and regulatory considerations, and “the best” care. However, the fact that worldwide “energy demand is accelerating” and on its current pace “will double by the year 2050” will soon burst upon medicine.

Turning specifically to energy usage, the Health Care Energy Project tells us that hospitals “use twice as much energy per square foot as office buildings…” In addition, hospitals consume large quantities of petroleum-based, processed, and transported products ranging from aspirin to jells and lubricants to plastic dinnerware and gloves to pharmaceuticals, syringes, IV and dialysis tubing, to name but a few. And most of these items are produced for one-time, non-recyclable use. Petroleum derivatives are also found in many computer parts, electronic equipment, furniture, and so on.


… hospitals “use twice as much energy per square foot as office buildings…”


As noted, hospital administrators are somewhat aware of and responding to the rise in energy costs for heating, cooling, and lighting, primarily by locating the problem in the domain of facilities management. Therefore, controlling energy costs in a hospital largely is confined to electricity and natural gas bills.

As the costs of oil and natural gas have risen in recent years facilities managers are trying to make their buildings more energy efficient, hoping that such savings will offset price rises. Yet, a 2006 survey of hospitals found:

More than 90% … reported higher energy costs over the previous year [2005], and more than half cited increases in double-digit percentages.

The facilities management response is to replace, retrofit or upgrade inefficient infrastructure —boilers, lighting fixtures, building insulation, windows, etc., and in general to “modernize” facilities — in accordance with the Energy Star Program. Some of the newest “green” hospital building approaches promise to reduce energy consumption by as much as 60% below code mandates. This is encouraging, but only a beginning.

However, new construction is done only when it makes “economic sense,” leaving many older hospitals and kindred structures too obsolete to “economically” justify retrofitting or demolishing and replacement — again energy is presumed to be plentiful and cheaper than upgrading — and no consideration whatsoever is given to its scarcity. Moreover, the costs for new hospital construction are soaring, another factor traceable to increasingly expensive fossil fuels. Dave Carpenter, summarizing a 2006 energy survey of hospitals, comments on the constraints facilities managers face:

Money-related reasons were among those given most often in response to a … question asking why recommended energy-saving measures hadn’t been implemented, including 37% who reported a lack of funds. Additionally, 31% cited other priorities, 26% said the payback period was judged to be too long, 23% said operations and maintenance budgets were underfunded and 16% cited lack of senior management commitment and support.

Given these constraints:

Facilities managers have little choice but to stay on the lookout for energy savings wherever they can be found. [One manager] says “it’s going to get worse before it gets better…”

We would argue that “it,” energy costs, will not get better. The entire health care industry will be forced to accommodate to dwindling fossil resources while simultaneously beginning to face the consequences of global warming.

This is stark because the health care system —already stressed in other ways — could begin to fail and even collapse for want of energy and a surge in patients.


… the health care system … could begin to fail and even collapse…


Finally, a word is needed on the third so-called “fall-back” fossil fuel we have barely mentioned, coal, since many energy experts offer it as a painless fix for peak oil. While the high levels of greenhouse emissions of coal are well known, what is less appreciated is that carbon sequestration to control greenhouse emissions is expensive and still an unproven technology. Second, recent reviews have concluded there are substantially less coal reserves than the commonly accepted estimates of 200–300 years supply. Perhaps as little as a few decades of recoverable coal remains, much of it low-grade and high in pollutants.

The dimensions of what we face are uncertain, but the major question undeniably is how will hospitals change given the ecological (global warming as well as multiple sources of pollution and resource scarcity) and geological (twilight of fossil fuels) state of affairs the world now faces?

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And the answer is?

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Healthcare And Computer Energy Savings – Turn them off and save money

That is right – turn off your computer when not using it and the medical world could save millions of $$$. Why don’t they energy manage their data networks? Because they don’t have to, they think they are Gods.

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http://it.med.miami.edu/x1159.xml

Computer power management

What’s the big deal?

Research shows that personal computers (PC) are not being actively used during the vast majority of the time that they are kept on.  It is estimated that an average PC is in use 4 hours each work day and idle for another 5.5 hours.  It’s also estimated that some 30-40 percent of the US’s work PCs are left running at night and on weekends.

Office equipment is the fastest growing electricity load in the commercial sector.  Computer systems are believed to account for 10 percent or more of commercial electricity consumption already.  Since computer systems generate waste heat, they also increase the amount of electricity necessary to cool office spaces.  (Yes, they lower the cost of heating somewhat.  That’s not a big factor in Miami.)

For the Medical Center, we estimate the savings from PC power management to be hundreds of thousands of dollars annually, even without factoring in increased office cooling costs.  Considerable savings are also possible from easing wear-and-tear on the computers themselves.

If you’d like to make a savings calculation for yourself or your organization — on electricity, dollars, trees, CO2 emissions — you can do that here.

Isn’t this “automatic” on most computers?

Almost all computers and monitors sold in the US today come with ENERGY-STAR energy-saving features.  But they generally don’t work unless you set them.

Both Windows and Apple/Mac systems allow you to set the amount of idle time that occurs before the system goes into “standby” or “sleep”  mode:

  • On Microsoft (Windows) systems, times are set in the Power Options section of the Control Panel.  Get there by the following path: Start > [My Computer >] Control Panel > [Performance and Maintenance >] Power Options.
  • On Apple (OS X) systems, standby and power option settings are set under System Preferences.  Go there and then select Energy Saver.

Standby/sleep modes are suitable for when your computer is idle for an hour or more.  A full system shut-down and power-off is appropriate at the end of the work day.

Will power management hurt my computer?

It’s a myth that turning computers off and on shortens their lives — unless you turn them off many, many, many times every day.  It’s also a myth that starting the computer requires a lot of “extra energy”: it actually only takes the equivalent of a few seconds of running time power.

Computers generate a lot of heat — principally from their central processor units (CPU).  Allowing a “cool down” during a power-off period will generally increase the life span of the entire system.  Allowing your computer to rest its moving parts, like the spinning hard drive, cooling fans, etc., will tend to increase the life-span of those components.

The reboot of the system that takes place when power is restored has another positive effect.  Many software patches and upgrades require a reboot to be fully installed and functional.  A computer that is only rarely rebooted may lag behind on software updates, and accordingly be more vulnerable to malware attacks.

Is there any downside to power management?

Obviously you have to consider the value of your time too.  A fully powered-down “off” computer takes a considerably longer time to restore to operational status than one in stand-by mode.  One in stand-by takes longer to restore than one that is fully on — although not much longer.

We’re not recommending you turn your system entirely off unless you plan to be away from it for a long time — such as at the end of the work day.  We do recommend setting a sleep/stand-by mode for when your system is idle for 30-60 minutes or more.

Unless your system is controlling an ongoing process, such as running/monitoring laboratory equipment, there is usually no good reason to leave it on when you are away for extended periods.  And many good reasons not to.

How does power management work?

Power management savings come from reducing hardware power to sleep levels when the computer is not fully active.   Idle-ness is defined by an absence of mouse or keyboard activity (and no on-going processes for applications) for a set time period.

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That’s right they saved hundreds of thousands of $$$. So how many Medical Centers like this exist? Well how many Major Universities are there in the US. That is right…hundreds of millions of $$$$

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Green Hospitals And Environmental Doctors – They sure are hard to change

People always ask me, “why did you study psychology”? I always reply, “because saving the planet Earth from Humans is all about changing behavior. Doctors are a case in point. Doctors are investors. What do they invest in? Why highly profitable things…like coal mines, plastics manufacturing, and utilities. So they know that if they change their behavior at work – even though they make money in the short run – in the long term they could lose money as the very things that make them wealthy become less profitable. They also know that their work load will drop because people stay healthier. So, while all other businesses are cutting costs through things like recycling and waste reduction on the back end and enviro friendly practices on the front end you still hear terms like “barriers”  and “hurdles” in the healthcare industry. These are polite terms for “no way” and “not in your lifetime”. In all fairness, this article is dated 2003 and in some ways that is a lifetime ago…others not so much…

http://news.thomasnet.com/IMT/archives/2003/06/medical_product.html

« The Future of the Medical Device Industry | Main | Move Over X-Rays, Welcome T-Rays »

June 5, 2003

Medical Products Struggle to Get “Green”

By Katrina C. Arabe

Designing medical products for recyclability is tough. And recapturing medical equipment for recycling is even trickier. Learn how the industry is managing the journey toward “green”:

The eco-friendliness drive is accelerating in the medical products industry, but the road to “green” is marked with many potholes. For starters, increased use of disposable products has exacerbated hospital waste. And designing medical products to be easily disassembled and recycled continues to be confounding because many medical devices are required to be extra-tough—able to endure falls and harsh sterilization. But many manufacturers, vendors and suppliers are facing such obstacles head-on.

“Two years ago you couldn’t get group purchasing organizations for hospitals to talk about environmentally preferable purchasing,” says Laura Brannen, co-director for Hospitals for a Healthy Environment (H2E), “but now many champion the cause.” For instance, Baxter Healthcare of Illinois, one of the largest medical products manufacturers, together with group purchaser Premier Inc. and Catholic Health Care West, both of California, is trying to create an advisory group that will delve into recycling and waste-reduction issues, such as decreasing medical packaging and recycling single-use plastics.

And the H2E program is attacking the environmental problem from many fronts. “H2E hopes to provide the framework and initiate discussions on how the industry can create processes and infrastructure that develop take-back programs, or products and packaging that are stackable and returnable,” says Brannen. “H2E is also pursuing partnerships between manufacturers and distributors to establish methods that let distributors back-haul plastics to the manufacturer or plastic recyclers. The group’s ultimate goal is reaching medical device designers so products have minimal environmental impact.”

What a Waste

Hospitals produce over 6,600 tons of waste per day, estimates H2E, at least 15% more than 10 years ago due to the proliferation of disposable products. And this estimate does not even take into account the output of private medical and dental clinics, veterinarians, long-term care, laboratories and independent blood banks.

Accounting for 75-80% of a healthcare facility’s waste, solid waste is the most sizeable portion, says H2E, encompassing paper, metal, glass and plastics. Chlorinated materials, such as polyvinyl chloride (PVC), are especially problematic because incinerating waste with chlorinated content produces dioxins, which can cause cancer and hormonal defects. In fact, burning medical waste with chlorinated materials is the third biggest source of dioxins in the environment, says Health Care Without Harm (HCWH). And globally, waste incinerators account for 69% of dioxins, estimates HCWH.

PVC is found in a wide range of medical products, from disposable intravenous (IV) bags and tubing to bedpans and notebook binders. Additionally, it’s common in durable medical products, where it is particularly difficult to reduce because of a dearth of PVC-labeling and PVC-free devices. “A first step in reducing PVC use in these applications would be to require vendors to disclose the PVC content in their products,” says Brannen. “Medical products and their packaging are often not labeled with their contents.”

Currently, there is no U.S. industry standard that calls for the labeling of injection molded parts, says Chris Belisle, senior project engineer for injection molder Phillips Plastics Corp. of Wisconsin. However, several internationally owned medical OEMS are preparing for recycling mandates that may be enforced in the future. For example, Datex-Ohmeda Inc. of Finland, a supplier of anesthesia equipment, denotes the resin acronym on every injection molded part.

Designing for Disassembly

An even more fundamental approach to the “green” issue is designing medical products for easy dismantling and recycling—not an easy feat for many medical devices. “Common methods for making disassembly easier such as snap fits, may work well for some products, but they may not be appropriate for use in certain medical applications,” says Belisle. Unlike other products, many medical devices are required to pass demanding drop tests and to withstand severe sterilization that could damage fragile internal electronic circuits. In some cases, designing for recyclability could even negatively impact medical product design and increase production costs.

Nonetheless, some companies are incorporating recyclability concerns in product development. Says Pedro Torres, a supply manager for Datex-Ohmeda’s manufacturing plant in Wisconsin, “Taking time to review each step in a development process may at first appear to slow it down, but we found that strategic cradle-to-grave program reviews improve current products and provide cost-saving initiatives for future programs.”

Design engineers can take certain measures to promote a product’s future recyclability. According to Jack Pape, a VP with rotational molding company, Meese Orbitron Dunne Co., New Jersey, engineers can reduce the priciest part of disassembly—labor—by incorporating simple hinges. Furthermore, he recommends specifying recyclable materials, such as linear low-density polyethylene (LLDPE) and high-density polyethylene (HDPE), as well as materials that are commonly used and likely to remain in wide circulation.

Engineers should also refrain from modifying the material through additives, textures and foaming agents because this drives up the cost of recycling and diminishes the recycled material’s potential market and value, Pape says. Moreover, he advises engineers to consider the effect of weathering—dirt, debris, and wear and tear—on recyclability. Finally, he tells engineers to steer clear of adhesive labels and inks whenever possible because they are difficult and expensive to remove.

Other Hurdles

Pape’s company already designs many products for future recyclability, but he acknowledges that it’s only a start. “Just because a product can be recycled doesn’t mean it will be economically viable to do so when the product is ready to enter the waste stream,” he explains. “Nor is there any guarantee there will be a market for the recycled material.”

And that’s not all design engineers must take into account. Another issue is how the price of the recycled material will match up against that of the virgin material at the product’s anticipated date of obsolescence or disposal. “Further clouding the forecast,” he notes, “are the possibilities that new materials may be developed after manufacturing that render recycled material useless. And environmental regulations may be enacted after manufacturing that could eliminate use of the material or increase the cost to use it.”

“After considering these possibilities, design engineers must address their greatest and most costly challenge: how the product will be removed from the waste stream and transferred into the recycling stream, assuming there’s a market for the material,” continues Pape. He points out that there is currently no government-sponsored collection program for obsolete medical equipment. “Who will bear the responsibility for tagging a given product for recycling at the end of its useful life and who will assume the cost of shipping it to a recycling operation that can accommodate the given material?” he asks.

Long Road Ahead

Indeed, medical product manufacturers, vendors and suppliers have their work cut out for them. But through more conscientious purchasing, eco-friendly design and established recycling programs, they can make steady progress in their long journey toward a “green” medical products industry.

Source: Think “RECYCLE” for Medical Products
Jean M. Hoffman
Medical Design News

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The link to the article was broken so I printed only the author’s name for attribution. However here is the drirect link to the publication and part of a 2008 article. Apparently GREEN In Medicine has gotten a bit more lively:

http://www.medicaldesignnews.com

http://medicaldesign.com/engineering-prototyping/sustainable_design_medical/index.html

Sustainable design for medical devices

Mar 1, 2008 12:00 PM, Chris Kadamus, Principal Design Engineer, Cambridge Consultants, Cambridge, Mass.

Chris Kadamus
Chris Kadamus

Medical products account for an enormous amount of the solid, industrial, and chemical waste in developed countries throughout the world. In the U.S. alone, hospitals produce more than 6,600 tons of waste per day, including 800 tons of non-hazardous, and potentially recyclable, plastic parts. In addition, many medical products use hazardous chemicals and solvents during manufacture or include materials that can be harmful if not disposed of properly. Disposal of non-hazardous and hazardous medical waste can be costly from an environmental and financial point of view. As such, it could benefit the medical-device industry to embrace sustainable design, a concept in which products are evaluated in terms of financial impact and social and environmental impact as well.

Historically, the medical-device industry as a whole has been risk averse. This is primarily because of stringent FDA regulations, fear that alternate methods or materials may compromise patient health, and an overarching fear of legal liability. Adding design for sustainability to an already rigorous set of design requirements, including biocompatibility and aseptic assembly, can put an additional burden on design teams whose primary goals are time-to-market and FDA compliance.

Furthermore, much of the medical-device industry generates most of their revenue from disposable products. Approximately 90% of medical-device waste consists of items designated for one-time use. Fears of contamination, the high costs of sterilization and reprocessing, and the desire for continuous revenue have firmly anchored the disposable products’ business model in the minds of industry leaders.

There are, however, a number of driving factors and significant competitive advantages in bringing sustainable design to the medical-device industry. First, while the U.S. has lagged in the ratification of environment legislation, the European Union has moved to ban some hazardous materials, promote recycling and encourage energy efficiency using legislation. Standards such as WEEE (Directive on Waste Electrical and Electronic Equipment), RoHS (Restriction of Hazardous Substances in Electrical and Electronic Equipment), REACH (Registration, Evaluation and Authorization of Chemicals), and the EuP regulations (Energy Using Products), while not currently applicable to the U.S. or enforced for many medical products, have gained significant support in recent years. Many experts agree it is only a matter of time before these or similar standards will be enacted in the U.S. and become applicable to the medical-device industry.

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Risk adverse my ass.

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Cap And Trade This Year – I know this seems like a little off topic

We will get back to energy use and Healthcare tomorrow. This is such an obvious linkage that I thought I would put it up.

http://www.businessgreen.com/business-green/news/2259898/obama-healthcare-victory-clears

Obama’s healthcare victory clears path for climate change bill

As Democrats secure historic healthcare reforms, fresh details emerge of proposed climate change bill
James Murray, BusinessGreen, 22 Mar 2010
President Obama

The chances of US climate change legislation passing this year received a major boost after President Obama secured victory in his historic battle to pass healthcare reforms late last night.

The successful House vote on the legislation following over a year of intense and fraught negotiations will clear a path for the administration to turn to its next large piece of administrative business: climate change.

Some senior Democrat Senators have suggested that following such a long battle to pass healthcare legislation the Senate will have “no appetite” to deal with a climate change bill that is likely to prove equally contentious.

However, both the administration and Democrat leaders in the Senate and House of Representatives remain adamant that they want to pursue a vote this year and with the party still behind in the polls ahead of November’s mid-term elections the race is now on to move the legislation forward as quickly as possible.

The key healthcare vote comes just days after the compromise version of the climate change bill being prepared by the bi-partisan trio of Senators Democrat John Kerry, Republican Lindsey Graham, and independent Joe Lieberman, received a further boost when both environmental and industrial groups signaled their support for the proposed legislation.

In a surprise move, Bruce Josten, the top lobbyist at the US Chamber of Commerce, told reporters last week that the work being done by the three senators was “largely in synch” with the business group’s views.

Josten stopped short of fully endorsing the bill, but following a meeting with the Senator’s last Wednesday he struck a markedly different tone to the outright opposition to previous versions of the bill that the Chamber adopted last year.

“The fairest comment would be, directionally speaking, the way they are trying to conform and shape this bill I would suggest is largely in sync with what most people in American industry think is the direction you are going to have to go if you are going to have a successful program,” he told reporters.

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Global Warming’s Impact On Illinois – Slightly warmer wetter Springs,

Slightly cooler wetter Summers, and slightly warmer and wetter Falls with earlier first frosts. Oh that sounds so scary. But if you think about it, it is. I have said all along that the biggest early effect of Global Warming is the disruption in farming. Farmers won’t know when to plant. They will have replant and they may not be able to harvest…This will mean that we can feed ourselves but we can’t feed the world. Food riots have already happened 2 years ago, thought governments were better prepared last year.

Don’t believe me? Let’s ask the experts.

http://www.isws.illinois.edu/atmos/statecli/ElNino/elnino.htm

El Niño and La Niña in Illinois

El Niño and La Niña refer to periods when sea-surface temperatures along the equator in the Pacific Ocean are either unusually warm (El Niño) or cold (La Niña). These events typically begin in the spring or summer and fade by the following spring. A more complete description of El Niño and La Niña can be found under Other Resources below.

The NOAA Climate Prediction Center has identified a weak El Niño event in the Pacific Ocean. This event is expected to strengthen and last through this winter (2009-2010). Here is a series of maps on the historical impacts of El Niño on monthly temperature and precipitation (pdf). In general, they produced warmer-than-normal temperatures in September and during December-March. In contrast, cooler-than-normal temperatures prevailed in August and April-May. The impact on monthly precipitation was both weaker and less consistent. Somewhat wetter conditions prevailed in August, October, and December while drier conditions were found in September.  [posted September 22, 2009]

Summary of Impacts of El Niño

El Niño events vary in size, intensity, and duration. As a result, the impacts can vary from one event to the next. In addition, there may be other factors that influence our weather during these events.

  • Summers tend to be slightly cooler and wetter than average
  • Falls tend to be wetter and cooler than average
  • Winters tend to be warmer and drier
  • Springs tend to be drier than average
  • Snowfall tends to be 70 to 90 percent of average
  • Heating degree days tend to be 80 to 90 percent of average. Lower heating degree days mean lower heating bills.
  • Tends to reduce tornado activity in the High Plains and Midwest and increases it in the Sout

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He wants to blame it on El Nino, but notice later he says they have been getting weaker and weaker…What happens when they do not come?

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http://www.aces.uiuc.edu/news/stories/news4422.html

Farmers Who Plant – Or Replant – After June 20 May See Yields Shrink By Half

Published: Jun. 10, 2008

Source: Emerson Nafziger, 217-333-4424, ednaf@illinois.edu

CHAMPAIGN, Ill. — A costly deadline looms for many growers in the Midwest, as every day of waiting for the weather to cooperate to plant corn and soybeans reduces potential yields. Research indicates that Illinois growers who plant corn or soybeans near the end of June can expect a 50 percent reduction in crop yield, according to a University of Illinois agriculture expert.

The U.S. Department of Agriculture reports that corn and soybean growers in several Midwestern states are behind schedule on their planting. A cooler and wetter-than-average spring has left Illinois and Indiana furthest behind on planted corn and soybeans. Several other states are lagging behind their normal planting schedules, but by a lesser margin.

In Illinois, 95 percent of the corn is planted and 88 percent has emerged, but less than half of that is reported to be in good or excellent condition. Fully 14 percent of the acres planted are in poor or very poor condition, with another 38 percent reported as fair. Those acres in poor or very poor condition may have to be replanted.

In Illinois, the corn was 7 inches high as of June 9, compared to an average of 17 inches by this time in recent years. Illinois crop sciences professor Emerson Nafziger says cool temperatures and the third wettest January-April since 1895 in Illinois have led to delays that are undercutting potential yields.

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http://www.agpowermag.com/articles/articles.php?articleid=408

Think Twice Before Tilling Corn Ground This Spring

May, 1998

Thinking of taking a disk or field cultivator to last year’s no-till field? Agronomists warn that just one tillage pass is enough to negate many of the long-term benefits of no-till farming.

“After two to five years of continuous no-till farming, we see significant improvements in soil structure and organic matter levels,” says Jerry Hatfield, a researcher with the USDA-ARS Soil Tilth Lab in Ames, Iowa. No-till ground also resists crusting and has a higher cation exchange capacity, which is the soil’s ability to hold onto nutrients. Tillage — even just one pass – diminishes those benefits.

Once you revert back to tillage, you’re also giving up more immediate benefits like time, labor, and fuel savings, points out Mike Plumer, natural resources educator with the University of Illinois.

Despite these benefits, no-till corn acreage has leveled off nationally and declined in some eastern Corn Belt states, according to the Conservation Technology Information Center. Many blame unseasonably cool and/or wet spring weather. In Iowa, for example, last April was the coldest April since 1983 and the 16th coldest in 125 years of state record keeping. Last May was

the seventh coldest May in 125 years.

Under these conditions, no-till soils start out cooler and can take longer to warm up. That can put a strain on corn emergence and early growth.

If El Nino brings warm, dry weather to the Corn Belt this spring, no-till corn acreage could rebound, says Wayne Pedersen, plant pathologist with the University of Illinois. “No-till systems always do well in dry years,” Pedersen says. “No-till soils hold onto moisture better than tilled soils. As a result, no-till corn can tolerate a lack of rainfall — without yield loss — for a much longer period than conventional till corn.”

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I know that is 2008 analysis and comment. but like I said what if it doesn’t go away? hmmmmmm

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http://web.extension.illinois.edu/stephenson/news/news17285.html

Spring Forage Seeding Considerations

FOR IMMEDIATE RELEASE
March 15, 2010

Mother Nature did not allow many graziers to frost seed red clover in late February-­early March. Wet conditions have prompted several forage producers to ask about seeding. In the recent Iowa State University Integrated Crop Management News newsletter, Steve Barnhart, Extension forage specialist addressed the topic of “wet spring forage planting considerations”. With some minor modifications for Illinois, the article follows.

Can spring forage stands still successfully be plant? The short answer is – yes, into the first ten days to two weeks of May (late-summer seedings are more successful in southern Illinois). The end of the spring forage planting season is limited by seedling development and growth into the summer months. Most forage seedlings are emerging and growing root systems

into the top one to three inches of the seedbed during the three to four weeks following germination.
The increasingly dry and hot soil surfaces in late May and June increase the risk that the small forage seedlings do not establish. So, the risk depends on rainfall and soil temperatures

from here on. If conditions turn normal or hotter and dryer than normal, the risk of late planted forage seeding failures increases. If late May and early June conditions remain cooler and wetter than normal, then later-than-desired spring forage seedings may survive very well.
Planting later than desired, adds to vulnerability to erosion and weed competition. Keep

cereal companion crop planting rates to half of a full seeding rate or less, and mow or clip new

seedings several times during the early seedling development months to allow sunlight to reach small developing legume and grass seedlings. Also scout for and manage potato leafhoppers in new alfalfa seedings.

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More tomorrow…

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More Energy Efficient House Designs – They all look pretty weird BUT

http://www.energyefficientbuild.com/

Energy Efficient Building Network for Your Home / Building Project

this site is continually updated — so visit with me often for the latest updates!

At Energy Efficient Building Network, we believe that working with competent and experienced design and construction professionals is essential for your dream house / building project’s successful completion in a cost-effective and timely manner.

A Successful Energy Efficient Building Project! … needs all the right decisions, a team of dedicated and experienced professionals working in concert, and a whole lot more. How to do it right every time? … We need a system, there are no short cuts, no magic wand. Energy Efficient Building Network has a system that uses the Top Ten List for successfully completing an energy efficient building project.

Every project today has energy efficiency as a key consideration — so whether you are building or renovating your house, or it is your commercial or light industrial building — energy efficiency a key requirement — good thinking — Congratulations!

It all begins with a genuine desire, a concept, a need, an idea, a dream. You want to do it right, you want a building that is energy efficient, functional, aesthetically pleasing, cost-effective, long-lasting, and that is strong, is healthy, and is comfortable — you want it all — and why not!

For an energy efficient building, efficient use of energy is not an after thought, it is a key consideration that impacts decisions at every step of the way from conception to completion. So as the decision is made to build, and the budget and schedule issues have been considered, we need to follow the steps in the …

Top Ten List …

  1. Building System… select one that has energy efficiency at its core, is state-of-the-art, and is strong in its resistant to natural hazards, is cost-effective
  2. Project Management … create a team so that every one is a team player and has experience and expertise in energy efficient construction in one’s respective discipline
  3. Foundation… design so that it is compatible with the Building System selected
  4. Walls… choose a compatible system that provides most energy efficiency, ease of building and allows for use of wall covering of your choice
  5. Floors… design compatible floor system that provides for energy efficiency, occupant comfort, use of floor finish of choice
  6. Roof… design roof structure and choose roofing system that is energy efficient, is compatible with the various sub systems of the building and affords the aesthetics and curb appeal that you desire
  7. Doors and Windows… select type and style that are energy efficient, are durable, and meet your decor ideas
  8. Mechanical… choose compatible system and fixtures that are energy efficient, are state-of-the-art and have proven record of performance
  9. Electrical… design system and choose fixtures that are compatible, are state-of-the-art, meet your decor ideas and are energy efficient
  10. Appliances-Fixtures… choose such that they add-value to your energy efficient project, are durable, are cost-effective, and meet your ideas of decor, aesthetics and curb appeal

So this is how it goes …

You turn the idea into a plan — you develop a mission. You search for a suitable location. You want your building to be cost-effective and you are concerned with not only about the building’s initial cost but also its operational cost over its entire life cycle. You establish a budget and you establish a schedule.

You chart out the purpose and the function of the building. You initiate a project. You want to design it and build it so it meets all of your requirements such as form, function, aesthetics, budget, schedule, safety, security, while meeting all the pertinent rules and regulations. You want to spend your money wisely, you want to use proven cutting edge state-of-the art technology, you want your building to have a long useful life — you want to be proud of what you are going to build — there we go!

So, for example if you are building it in Rochester Hills, in the State of Michigan in USA, where I have my consulting practice, you have to meet all the local, state, and federal regulations — or if your building is going to be located in the city of Toronto, in the Province of Ontario where I lived a number of years ago, you have to comply with the local, provincial, and federal regulations — or even if your building is going to be located in New Delhi, India, where I grew up, you have to ensure compliance with all local, municipal, and federal requirements. You want your building to be designed and built right — according to applicable codes — be it International Building Code, International Residential Code, UBC, BOCA, SBC, MEC, and so on.

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Did you want me to say more…OK more tomorrow.

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Reusable Furnace Filters And Foam Insulation Pads For Electrical Outlets

While these are 2 things you will hardly ever hear about and probably won’t find them in any energy audit permanent furnace filters and foam insulation for electrical outlets are cheap easy additions to your environment. You will also notice that I have managed to discuss this whole topic of residential energy conservation withoutmentioning PAYBACK. The reason for that is I don’t believe in it. If you want to save energy/money, you will. If you do not then you won’t.

Professionals (gag and puke) will say rational sounding things like – Payback calculations allow consumers to prioritize their energy purchases. OR the equally obnoxious – If it takes more then 5 years to payback consumers won’t make the purchase. This is bullcrap, I know people who have wind turbines in their backyard. People who want to save WILL

Having said all that, both of these items payback are calculated in DAYS.

http://www.airfilterusa.com/residential-air-filters/electrostatic-furnace-filters?_vsrefdom=ppcgoogle&tsid=googleppc&ex=f06hqo-eep549-n3l9bq&gclid=CN6svrPYi6ACFRLxDAod0DEbfA

Electrostatic Furnace Filters

Electrostatic Furnace Filters

Air Filter’s Inc. Electrostatic Furnace Filters create its own electrostatic charge so it does not add to your electrical cost, but aids in reducing costs by keeping your air conditioning/ heating coils and equipment cleaner, so they operate at the highest capacity possible.Permanent washable electrostatic air filters are designed with a Heavy Duty Aluminum Frame, 2 Layers of special Polypropylene Weave on the front and back, with a unique poly internal lining designed for years of filtration.

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http://www.healthyhomefilterco.com/?gclid=COCGquzYi6ACFRHyDAod6j9SeQ

Our ELECTROSTATIC FURNACE FILTERS replace standard throw-away disposable air filters. Depending on where you live in the country, these filters are known as furnace filters, air conditioner filters or central air filters. They are PERMANENT, WASHABLE, REUSABLE and SELF-CHARGING. They have non-rusting ALUMINUM FRAMES and come with a LIFETIME WARRANTY.

These amazing filters reduce airborne dust in your house! Enjoy cleaner air and fewer allergy symptoms!

SAVE TIME…No need to search for that odd-sized a/c filter that nobody seems to carry.
SAVE MONEY…No need to buy a new furnace filter every few months. Pays for itself in about 1 year!
SAVE THE ENVIRONMENT…No need to fill up landfills with non-biodegradable fiberglass disposable filters.

We feature 5-Stage BoAir brand and 3-Stage Air Care brand permanent furnace filters. We pride ourselves on carrying the best air filters for the best price. Join our thousands of happy customers and switch to an electrostatic furnace filter today!

100% Satisfaction Guaranteed!

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http://www.neverbuyanotherfilter.com/?gclid=CMbP4rLZi6ACFRDxDAody3DMdw

OUR ELECTROSTATIC FILTERS ARE PERMANENT, WASHABLE, METAL-FRAMED WITH A LIFETIME WARRANTY.

* Replaces your furnace and/or air conditioning filters.
* Will work with all central heat and a/c systems.

Reduce dust in your house!
Enjoy cleaner air and less allergies!

Tired of forgetting to buy that pesky furnace filter every 3 months?
Tired of looking for that odd-sized filter that no one seems to stock? Stop wasting your time and money on ineffective disposable air filters. We offer permanent, metal-framed washable electrostatic filters from Air Care and BoAir. Never buy another filter again!

Our Electrostatic Filters Feature:

High Dust Arrestance…
Low Air Resistance.

Just vacuum off or hose off every 1-3 months and re-install.
Lifetime Warranty. 95% arrestance. Available in 41 standard sizes and custom sizes. Available in metal frame, deluxe frame and flexible frame (great for mobile home furnaces).
These same electrostatic filters retail elsewhere for $79.99-$99.99…
Get them at neverbuyanotherfilter.com for 50% OFF!

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Foam behind your electrical outlets? What is up with that. Well everytime I go into a house the first question I ask is, “do you have any holes in your wall?” They always laugh and say no. I take out a screw driver, take off a plug cover and say, “what do you call that?

http://www.homeadditionplus.com/insulation-info/Electrical-Outlet-Switch-Sealers.htm

Electrical Outlet and Switch Sealers

Photo by – Mark Donovan

Electrical Outlets and switches located on exterior walls are frequently found to be major sources for cold air drafts. Left unchecked you can waste a lot of money on winter home heating energy bills. By installing electrical outlet and switch sealers you can prevent this from happening.

Electrical outlet and switch sealers are thin foam pads that have cutouts for the outlet and switch receptacles. They are very inexpensive and extremely easy to install.

And most importantly, they will stop the cold air drafts and save you a bundle on home heating energy bills. You can find electrical outlet and switch sealers at any home improvement store.To see if you have cold air infiltration around your electrical outlets and switches just place your hand over them and feel for any cold air drafts. Ideally you should do this on a cold blustery day, as this will enable you to more easily detect the drafts.

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http://www.ehow.com/how_2383791_insulate-electrical-outlets.html

Heating or cooling a house seems to get a bigger piece of the family budget every month. Sealing the air loss around the home is critical and one of the often forgotten leaks is the electrical and light outlets that reside on the exterior walls of the home. A simple and inexpensive fix performed by anyone with a screwdriver and an hour to spare can save you money

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Anybody can change a filter or use a screw driver.

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Compact Flourescent Bulbs – Now for the really painful part

These babies are expensive and are already being replaced by LED Technology but beginning in 2012 regular lightbulbs will be phased out and eliminated by 2014. Did I say they look funny too. So go around and count all your lights. We have 11 in the bathroom alone. At 2 $$$ a pop that is 22 $$$ just for our bathroom but they last three years, cut your energy use for lighting purposes by at least 2/3rds and are recyclable.

So go to the store and get these:

http://www.bulbs.com/Incandescent_Bulbs/results.aspx?cm_mmc=google-_-light%20bulbs-_-incandescent-_-incandescent&AffID=6

Select a sub-category or click here to see all 670 products in Incandescent Bulbs

“Regular” (A-Shape)

3-Way

Decorative Torpedo & Flame Tip

Exit & Display

Fiesta

Globe

Indicator & Sign

Industrial

Night Light & Holiday

PAR-38

Reflector

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You can actually spend 40 $$$ on a house…nobody ever said change was easy or cheap

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