The average American family uses approximately 300 gallons of water each day, but a lot of that goes to waste.
Learn what you can do at home to reduce the amount of water that is wasted.
Please feel free to print and share our Cut Down on Water Waste Infographic with attribution to Tata & Howard, Inc. A high-resolution pdf can be downloaded by clicking here.
From May 13-20, the seventh annual Infrastructure Week is taking place with the support of hundreds of affiliates across the country. Infrastructure Week was created to help raise awareness for our country’s growing infrastructure needs and stress the message that we must #BuildForTomorrow. Led by a coalition of businesses, labor organizations and policy organizations, this week will unite the public and private sector to send this important message to leaders in Washington and beyond.
No matter where you live, your age, your education, if you drive a car or a truck or take the bus or a bicycle, infrastructure has a profound impact on your daily life. We all have to get around. We all need lights to come on and water to come out of the tap.
Consequently, too much of our nation’s infrastructure is under-maintained, too old, and over capacity. When it comes to water infrastructure alone, we are dealing with a massive network of pipes that are well over 100 years old. In short, droughts in western states have caused wells and reservoirs to fall dangerously low; saltwater intrusion of Florida’s drinking water infrastructure, and dam and levee failures in California, South Carolina, and Louisiana have caused evacuations and put hundreds of thousands of people and homes at risk.
And this is just the tip of the iceberg. A study conducted by the American Water Works Association revealed that the cost to replace our nation’s water infrastructures would cost more than one trillion dollars over the next 25 years.
No state, city, or county alone can tackle the growing backlog of projects of regional and national importance, and Americans get it: more than 79 percent of voters think it is extremely important for Congress and the White House to work together to invest in infrastructure.
For years, near-unanimous, bipartisan support for infrastructure investment has been steadily increasing. Leaders and voters have been rolling up their sleeves to spark efforts in the rebuilding and modernizing of transportation, water, and energy systems. Certainly, large strides have been made as a country, but there is still a lot to be done.
Every four years, the American Society of Civil Engineers (ASCE) publishes The Report Card for America’s Infrastructure, which grades the current state of the nation’s infrastructure on a scale between A and F. The last survey from 2017 gave tremendous insight into the state of our infrastructure surrounding drinking water, dams, and wastewater.
The drinking water that we get in our homes and businesses all comes from about one million miles of pipes across the country. While the majority of those pipes were laid in the early to mid-20th century, many are showing signs of deterioration. There are many reasons for a water main to break including localized influences such as aggressive soil and weather conditions, as well as poor design/construction. Approximately 240,000 occur each year, consequently resulting in the waste of two trillion gallons of treated drinking water. Drinking Water received a grade of D.
The average age of the 90,000+ dams in the United States is 56. Nearly 16,000 (~17%) have been classified as high-hazard potential. Dam failures not only risk public safety, they also can cost our economy millions of dollars in damages as well as the impairment of many other infrastructure systems, such as roads, bridges, and water systems. As a result, emergency action plans (EAPs) for use in the event of a dam failure or other uncontrolled release of water are vital. As of 2015, 77% of dams have EAPs – up from 66% in the last 2013 Report Card. Dams received a grade of D.
There are approximately 15,000 wastewater treatment plants across the U.S that are critical for protecting public health and the environment. In the next 15 years, it is expected that there will be 56 million new users connected to the centralized treatment system. This need comes with an estimated $271 billion cost. Maintaining our nation’s wastewater infrastructure is imperative for the health and well being of the 76% of the country that rely on these plants for sanitary water. Wastewater received a grade of D+.
In the water sector alone, it’s clear how heavily we rely on solid infrastructure. If the issues in our nation’s water infrastructure are not addressed, millions of people as well as our environment will be at risk. Many communities around the country are working hard to deliver projects to solve these problems – but there is always more to be done. Reversing the trajectory after decades of under-investment requires transformative action from Congress, states, infrastructure owners, and the American people. Join us this week to help spotlight the continued advocacy and education of infrastructure needs. Afterall, this is the true foundation that connects our country’s communities, businesses, and people.
As Drinking Water Week continues, Tata & Howard joins the American Water Works Association and water professionals across North America in encouraging water consumers to get to know their local H2O.
Finding information about local water is simple. As required by the Safe Drinking Water Act, water utilities must provide customers with an annual water quality report, also called a Consumer Confidence Report (CCR). A CCR identifies the quality of local drinking water and if any contaminants are detected and if so, which ones. Also available in the report is information on a community’s local source for drinking water. The city of Marlborough, MA, home to Tata & Howard’s headquarters, uses an average of 4 million gallons of water a day. Currently, 100 percent of the water is supplied by the Massachusetts Water Resources Authority (MWRA).
Additionally, information on local source water is available through the U.S. Environmental Protection Agency’s “How’s My Waterway?”
“As engineers in the water space, water is at the heart of everything we do,” said Tata & Howard Co-President, Karen Gracey, P.E. “Knowing the source of our water and keeping it clean is critical and we hope Drinking Water Week will serve as an opportunity for everyone to learn more about this vital piece of our daily lives.”
More information about local water sources is available on DrinkTap.org.
About Drinking Water Week
For more than 40 years, AWWA and its members have celebrated Drinking Water Week, a unique opportunity for both water professionals and the communities they serve to join together in recognizing the vital role water plays in daily lives. Additional information about Drinking Water Week, including free materials for download and celebration ideas, is available on the Drinking Water Week webpage.
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Founded in 1992, Tata & Howard, Inc. is a 100% employee-owned water, wastewater, stormwater, and environmental services consulting engineering firm dedicated to consistently delivering innovative, cost-effective solutions in the water environment. Tata & Howard has gained a solid reputation as an industry leader in the Northeast by bringing knowledge, integrity, and dedicated service to all-sized markets, both public and private. The firm has offices in Massachusetts, Connecticut, Maine, New Hampshire, Vermont and Arizona. For more information, visit www.tataandhoward.com
Established in 1881, the American Water Works Association is the largest nonprofit, scientific and educational association dedicated to managing and treating water, the world’s most important resource. With approximately 51,000 members, AWWA provides solutions to improve public health, protect the environment, strengthen the economy and enhance our quality of life.
A bipartisan senate bill was introduced on March 1 to mandate the Environmental Protection Agency (EPA) classify Per- and Polyfluoroalkyl Substances (PFAS) as hazardous substances eligible for cleanup under the Superfund toxics law, a massive step in efforts to eliminate widespread contamination by these compounds across the country. Under the PFAS Action Act of 2019, legislation would require responsible parties to report the excess release of PFAS into the environment and allow the government to sue polluters to recover the costs of cleanup.
Scott Faber, Senior Vice President of Government Affairs at the Environmental Working Group (EWG) said that “this proposal could assist potentially hundreds of communities throughout the country struggling with PFAS contamination by securing the resources required to begin the cleanup process and holding polluters accountable.”
PFAS are manmade chemicals that have been used in both industry and consumer products since the 1950s. The most common products that PFAS are used in include:
Exposure to PFAS can happen through a variety of ways including:
As PFAS are produced and used, they can migrate into soil and water inducing hugely detrimental effects on the environment, people, and animals. While scientists are still learning about the health effects to exposure of PFAS, some studies show that PFAS exposure may affect:
Tests performed by the EPA have detected PFAS pollution of public water supplies for 16 million Americans in 33 states, a statistic that is considered a severe underestimate of the scope of the problem. EWG and researchers at Boston’s Northeastern University have tracked 172 PFAS contamination sites in 40 states – a number that does not include public water systems with PFAS contamination. In May 2018, EWG released a data analysis that estimated more than 1,500 drinking water systems, serving up to 110 million Americans, may be contaminated with similar fluorinated chemicals.
The map below from EWG and SSEHRI at Northeastern University shows contamination sites and EPA tap water detections. Click here to view an interactive version of this map. The blue circles show where PFAS chemicals were detected between 2013 and 2016 in public drinking water systems, and the red circles show sites in Northeastern’s PFAS Contamination Site Tracker.
Should this bill be enacted into law, these 1,500 contaminated drinking water systems across the country would soon be cleaned up as part both short-term and long-term actions included in the Action Plan, potentially resulting in clean water supplies and safe drinking water.
The EPA is leading the national effort to understand PFAS and reduce risks to the public through implementation of this Action Plan and through active engagement and partnership with other federal agencies, states, tribes, industry groups, associations, local communities, and the public.
Key actions to PFAS related challenges include:
(See all priority actions, short-term actions, and long-term actions here.)
1ewg.org
2shaheen.senate.gov
3epa.org
4atsdr.cdc.gov
5michigan.gov
Effective October 1, 2018, Connecticut’s Department of Public Health (DPH) is requiring all small community water systems to complete Fiscal and Asset Management Plans by January 1, 2021 and update them annually. This new law effects small water companies that regularly serve communities of at least 25 but not more than 1,000 year-round residents.
The Fiscal and Asset Management Plan must include:
Under the new law, each small community water system must also complete an initial assessment review of its hydropneumatic pressure tanks by May 2, 2019 on a form developed by the DPH.
Failure to complete or update their fiscal and asset management plans on or before January 1, 2021 maybe subject to civil penalties by DPH.
Compliance Concerns?
Tata & Howard has extensive experience with all facets of asset management planning and programming. Our services focus on condition assessment and analyses of critical capital assets, as well as operational evaluations, water audits to reduce unaccounted-for water, and long-term capital planning. Initial hydropneumatic pressure tank inspections can be also be performed in time to comply with the DPH deadline of May 2, 2019.
In addition, Tata & Howard can help secure financing through grants, such as those available through the USDA Rural Development Water and Environmental Program.
Tata & Howard has assisted numerous Water Companies with their Asset Management Planning. Please contact us for more information.
The summer of 2018 saw devastating fires blazing all over the world. Nearly 100 people died in raging fires across the southern coast of Greece. More than 50 wildfires scorched Sweden where the temperature north of the Arctic Circle soared into the 90’s causing drought conditions. Record breaking temperatures across the globe from Montreal to Great Britain topped 98 degrees this summer. In Japan, 22,000 people were hospitalized when temps climbed to 106 degrees. And, in normally cool Oslo, the thermometer climbed to 86 degrees for 16 consecutive days. From Southern California and Arizona to India and Pakistan, withering heat reached a deadly 110 degrees that parched the environment.
The most alarming news is the hottest temperature ever reliably recorded reached 124.3 degrees in Algeria this July.
Fires, heat and drought of this scope and scale seem to be becoming the new normal. These extreme events point to a planet that is warming and perhaps faster than scientists have predicted.
Although the effects of climate change may vary widely in different geographic regions, those areas already hardest hit with drought and arid conditions may be in the most critical need of clean drinking water.
This crisis will only get worse as the earth’s population conceivably could grow exponentially in the next 50 years and adequate supplies of water become even more scarce. In addition to supplying all these thirsty people with clean water, the chilling paradox is the increased demand on already-scarce resources means there is a greater chance that existing water sources will become polluted by human waste, industrial toxins, and contaminated agricultural runoff.
It is human nature to postpone change and sacrifice as long as possible. But it is clear that public service announcements warning residents to save water, take shorter showers, plant resilient gardens, and conserve, is not going to be enough to help avoid a global water shortage. Fortunately, scientists and researchers are working diligently to solve some very complex problems to provide innovative and sustainable clean water solutions for the future.
Here are three cutting edge ideas for sustainable water supplies that just may help a warming world.
Ancient Bacteria for Modern Water Purification
Anaerobic or oxygen-averse bacteria to treat wastewater is back in vogue… after a billion years. When the earth was a toxic primordial goo, anaerobic bacteria thrived in the oxygen deprived world forming the first signs of life. Environmental engineers at Stamford University are now bringing back these ancient microorganisms as a more cost-effective wastewater treatment process.
Wastewater treatment plants that use aerobic bacteria must provide oxygen with huge and costly electrically powered blowers for these microorganisms to survive. Anaerobic bacteria treatment processes do not need oxygen and use considerably less energy, making the wastewater treatment process more economical to operate. In addition to saving money, engineers believe these anaerobes can filter household and industrial chemicals better than conventional treatment plants.
Full-scale plants utilizing anaerobic bacteria may soon be capable of processing millions of gallons of wastewater per day into refreshing clean water.
Mega Scale Desalination
Desalination plants may not have been around as long as ancient bacteria, but this technology is not a new concept either. What is news however, is the increasing role desalination will have in the future. Israel’s Sorek desalination plant is the largest seawater reverse osmosis (SWRO) desalination plant in the world providing 627,000 cubic meters per day (m3/d) or the equivalent to about 166,000,000 gallons of water per day (gpd) to Israelis.
Desalination plants which were notoriously expensive energy hogs have become less energy-intensive as technologies have improved. Using renewable energy, such as solar, wind and geothermal along with advanced technologies including thin-film nanocomposite membranes, captive deionization (most suitable for brackish water), forward osmosis, and metal–organic framework (MOF) biological cell membranes that requires very little water pressure, water desalination is becoming more efficient and cost effective. The new cutting-edge membranes can even filter out precious metals such as lithium used in batteries.
Saudi Arabia, the largest producer of desalinated water in the world with its 32 desalination plants and growing, will soon be producing a historic 5 million m3/d or the equivalent of about 1,321,000,000 gpd, a global record of desalinated water. Benefiting from this leading-edge technology, Cape Town South Africa may have averted a catastrophic “Day Zero” when the City’s first desalination plant went online, preventing a water doomsday for its residents.With the world’s oceans holding about 96.5 percent of all Earth’s water and with more innovation, desalination may prove to be this thirsty world’s salvation.
Drinking Water from the Air
Another old idea that is gaining favor is converting fog into drinking water. Super-sized moisture collection systems could allow people living in coastal or mountainous areas to convert fog into safe drinking water. Collection traps are made from a 3D mesh that can withstand high wind speeds, while still retaining and accumulating water in storage tanks. With a variety of sizes available, these fog systems can be used for individual needs or supplying water for entire villages.
Combine this idea with giant Atmosphere Water Generators (AWG), which takes moisture or humidity directly out of the air and converts it into potable water. Even in the driest of lands, the air is loaded with water molecules and enough drinking water converted from AWG’s could provide communities with a continuous and sustainable source of clean water.
On a large scale, the AWG units can be mounted on the roof-tops of commercial or residential buildings. When powered by renewable energy, these systems can create safe local drinking water efficiently and economically. Water districts and municipalities managing these units, can provide as much as 55 m3 /d or about 14,500 gallons per day, enough to service each building independently with water.
Collected water from both fog collection systems or AWG’s may seem farfetched. But consider this, 80 percent of California’s water goes to irrigate farms and the other 20 percent of water use goes to urban use. Collected water from the air could be used to irrigate crops or other commercial watering needs.
Water conservation and alternative technologies such as fog collection systems and AWG units can supplement our increasing demand for clean water and these ideas just might may make a difference.
The Future is for Innovation
Combating climate change and managing our depleting water resources is a reality we can’t ignore. The devasting fires, drought and heat from 2018, is a reminder that our actions today may help avert a global catastrophe in the future. These innovative ideas and others still in development are one step forward to a more sustainable world.
Our future depends on it!
Reclaiming Wastewater on the Space Station has an impact right here on Earth!
Water—it’s essential for all living beings… and water is essential to make life possible. It’s an interesting paradox that has kept scientists searching for life in extreme places.
When NASA recently announced the discovery of liquid water flowing under an ice cap on Mars, it opened the exciting possibility that life may exist outside our earthly abode. While it is conceivable scientists may eventually discover life somewhere in our galaxy, a reliable source of water outside earth is fundamental for the possibility of establishing a colony on Mars, exploring the universe and even visiting distant planets in search of life outside earth.
This is the stuff of science fiction…or is it?
Well, let’s get the stars out of our eyes and return to earth. First, we need to get to Mars and therein lies the challenge. Top on the list is how to provide the essentials for life, such as water, air and the entire habitat for the astronauts to live in as they journey among the stars.
Getting to Space
Establishing a sustainable long-term flight program requires a base to launch manned operations in space. The International Space Station (ISS), which was put into orbit in 1998 and has been continuously occupied since 2000, currently provides a habitable place for astronauts to live and conduct scientific experiments.
But hauling tons of supplies and materials to the International Space Station (ISS) is inefficient and extremely expensive. Sustaining a crew of four astronauts on the ISS with water, power and other supplies, costs nearly one million dollars a day. Even with the reusable SpaceX rocket which regularly provides supplies to the ISS, it costs $2,500 per pound to launch into space. With four astronauts living on the ISS needing approximately 12 gallons of water a day, it is impractical to stock the ISS with the tons of water needed for long periods of time.
It’s no wonder then that rationing, and recycling is an essential part of daily life on the ISS. The Space Station must provide not only clean water, but air to breath, power, and ideal atmospheric conditions to sustain life outside earth.
And every drop of liquid is important!
Reclaiming Water for Life Support
The Environmental Control and Life Support System (ECLSS) on the ISS is a life support system that provides atmospheric pressure, oxygen levels, waste management and water supply, and fire detection and suppression. The most important function for ECLSS is controlling the atmosphere for the crew, but the system also collects, processes, and stores waste and water produced by the crew…including the furry lab passengers too.
Yes, even mice waste is recycled.
If the idea of drinking reclaimed water from mice urine and other waste sources sounds unappetizing, consider this, the water the astronauts drink is often cleaner that what many earthlings drink. NASA regularly checks the water quality and it is monitored for bacteria, pollutants and proper pH (60 – 8.5).
This highly efficient reclamation system processes and recycles fluid from the sink, shower, toilet, sweat, and even condensation from the air. The ECLSS water recovery system on the ISS uses both physical and chemical processes to remove contaminants, as well as filtration and temperature sterilization to ensure the water is safe to drink.
More Innovation for the Future
Providing the astronauts with clean water from reclaimed wastewater at the Space Station is working fine for what they need right now, but it’s not perfect. The ISS system recovers water at a rate of approximately 74 percent. For longer missions to Mars and beyond, this rate must increase to at least 98 percent to sustain longer journeys into space. Scientists are continuously working on better and more efficient close-looped support systems to reduce water loss and improve ways to reclaim water from all waste products.
Recently, NASA invested in a new, lower cost solution to biologically recycle and reuse water developed by Pancopia. Pancopia is a small environmental and energy engineering company located in Virginia that focuses on wastewater treatment and research and development projects. Engineers at the firm have discovered an innovative technology that makes use of a group of bacteria called anammox. Anammox when combined with two other types of bacteria commonly used in conventional wastewater treatment (nitrifiers and denitrifiers), can remove high levels of organic carbon and nitrogen, the two primary pollutants in wastewater.
The combination of these three organisms naturally adjust to changes in the system and eliminates pollutants faster and more reliably than traditional wastewater treatment operations. And, the cost is significantly less to operate than conventional systems, which requires a lot of energy and consumables to run. In addition, the stability of the anammox process reduces costs by requiring fewer manpower hours to monitor and operate.
Back on Earth
What does all this water and wastewater reclamation innovation mean for us on earth?
Pancopia is currently working on a similar system used on the ISS for municipal wastewater facilities. Using the technology developed for the Space Station, other areas in the world with limited access to clean drinking water, will soon be able to utilize this advanced water filtration and purification system.
This innovative water recycling system initially intended for the astronauts, now has the potential to cut treatment expenses to less than half the current costs for municipal customers, while providing sustainable crystal-clear drinking water especially in arid and drought-stricken communities across the globe.
Man’s search for extraterrestrial life and desire to travel through space may actually have its greatest impact right here on Earth—clean water!
Drinking Water contaminated with lead can be a health hazard.
Whether water comes from a Public Water System or a private well, water contaminated with lead is most likely the result from corrosion of the plumbing materials, lead pipes, or the service lines from the water main in the street to the building.
Here are some facts about lead contamination and tips to avoid lead in drinking water.
Please feel free to print and share our 6 Lead Facts Infographic with attribution to Tata & Howard, Inc.
After the common cold, tooth decay is said to be mankind’s second most common disease. Because the mouth is a primary entryway into the body, bacteria caused by poor oral health, can easily enter the bloodstream and cause infection and inflammation wherever it spreads. From arthritis to dementia and cardiovascular disease to diabetes—all these ailments, and many more, have been associated with poor oral health.
Even so, that millimeter of enamel making up the outer part of the tooth is the hardest substance of the human body and can outlast even the human skeleton when interred. In fact, the oldest vertebrate fossil relics going back 500 million years are teeth. Despite these details, teeth can be surprisingly fragile and prone to decay.
Our teeth and gums, so often taken for granted, have until as recently as the mid-twentieth century, a very interesting and painful past.
A Toothless History
Tooth decay is not merely a modern disease; scientists have discovered mankind has suffered from dental disease throughout history. During the early years of human history, evidence shows ancient hunter-gatherers did not suffer too greatly from tooth decay. Rather, the shift in poor oral health occurred with the transition to agricultural societies and the introduction of crops that were high in carbohydrates and sugars. The consumption of these bacteria-causing foods destroyed tooth enamel.
That change in diet was the beginning of centuries of barbarous dentistry and a mouthful of pain.
Young or old, rich or poor—no one was immune to the ravages of toothaches, swollen bleeding gums, and tooth loss. It wasn’t until the reign of Louis XIV in the early 17th century, when fashionable society demanded—more for appearance than for eating—solutions for missing teeth. With that, Pierre Fauchard, who was to be called the “Father of Dentistry,” introduced a new era of dental care. He not only practiced more humane tooth extraction, he also developed the first dental drill and methods for filling cavities, learned to fill a root canal, and introduced a spring to the upper portion of his ivory-carved dentures to keep them in place.
Still, with these advances in dentistry, tooth loss and decay persisted. Since ancient times, it was widely thought that toothaches were caused by worms that destroyed teeth. It wasn’t until 1890, when a dentist named Willoughby Miller identified that tooth decay was caused by a certain type of bacteria that thrives on sugar, creating an acid that ate away at tooth enamel.
But preventing tooth decay was still a mystery.
Brown-Stained Teeth
Dentists in Colorado wondered why their patients had mottled, discolored teeth. The cause of the brown-stained tooth enamel, it was discovered, was from high levels of fluoride in the water supply. Dr. Frederick McKay, the dentist spearheading this research, found that teeth afflicted by the “Colorado Brown Stain,” as it was called, were surprisingly resistant to decay.
Fluoride, which is a component of tooth enamel, is also found naturally in many foods we eat and is detected in water supplies around the world—as it was in water supplies to the small Colorado towns of Dr. McKay’s research. At low concentrations, fluoride can be beneficial to healthy teeth. However, too much exposure can have adverse effects, such as dental fluorosis, which causes tooth enamel to become mottled and stained.
Fluoride in Water and Other Sources
By the early 1930s, Dr. H. Trendley Dean, head of the Dental Hygiene Unit at the National Institute of Health (NIH) began investigating the prevalence of dental fluorosis, and exposure to fluoride in drinking water. After considerable debate, on the afternoon of January 25, 1945, powdered sodium fluoride was added to the Grand Rapid’s municipal water supply in Michigan.
Dentists stress that fluoride strengthens the tooth enamel, making it more resistant to tooth decay and thereby can greatly help dental health. However, most people now receive fluoride in their dental products, such as toothpaste, gels, and mouth rinses.
The Massachusetts Department of Environmental Protection (MassDEP), is now accepting Project Evaluation Forms (PEFs) for new drinking water and wastewater projects seeking financial assistance in 2019 through the State Revolving Fund (SRF). The SRF offers low interest loan options to Massachusetts cities and towns to help fund their drinking water and clean water projects. PEFs are due to the MassDEP Division of Municipal Services by August 24, 2018, 12:00 PM.
Financing for The Clean Water SRF Program helps municipalities with federal and state compliance water-quality requirements, focusing on stormwater and watershed management priorities, and green infrastructure. The Drinking Water SRF Program, provides low-interest loans to communities to improve their drinking water safety and water supply infrastructure.
This year, the MassDEP Division of Municipal Services (DMS) announced the following priorities for SRF proposals.
In addition, Housing Choice Communities will receive a discount on their SRF interest rate of not less than 1.5%.
Summaries of the Intended Use Plans (IUP), will be published in the fall, which will list the project name, proponents, and costs for the selected projects. After a 30-public hearing and comment period, Congress will decide which programs may receive funding from the finalized IUPs.
To Apply for SRF Financing
Tata & Howard is experienced with the SRF financing process and is available to help municipalities develop Project Evaluation Forms along with supporting documentation, for their local infrastructure needs.
Please contact us for more information.
The MassDEP Division of Municipal Services are accepting Project Evaluation Forms until August 24, 2018 by 12:00 PM.