Clean Water Inspired by a Rose

When thinking of flowers, it’s hard not to appreciate the water that is necessary for them to grow. But have you ever thought about the significance of a flower when it comes to clean water?

A team in the Cockrell School of Engineering at the University of Texas at Austin has developed a new device for collecting and purifying water. Inspired by the structure of a rose, the flower-like device costs less than two cents to make and can supply more than a half-gallon of water per square meter.

water filtration and production device that resembles the inner workers of a rose.
Photo: UTexas.edu

Inspiration

The team of Ph.D. candidates led by Professor Donglei Fan were fueled by the creation of a new approach for solar steaming – a technique that uses energy from the sun to separate salt and other impurities from water through evaporation. Their origami rose inspired system could be a new paradigm for water production and treatment for both individuals and homes.

Existing solar-steaming technologies are typically bulky, expensive, and produce limited results. The UT team aimed to create a solution using portable, lightweight and inexpensive materials. The result – a product that looks like a black-petaled rose in a glass jar. While portable and low-pressure controlled solar-steaming systems known as ‘unisystems’ do exist, the flower structure portion of the design is new.

Inner-workings

The system is made from layered, black paper sheets that are shaped into petals. The 3D rose shape, attached to a stem-like tube that collects untreated water from any water source, makes it easier for the structure to collect and retain more liquid. The black paper is filtered and coated with a polymer known as polypyrrole. Polypyrrole is a material known for its photothermal properties – meaning that it coverts solar light into thermal heat.

Water Collection

There are two ways in which the device collects water. The first is through the stem-like tube that feeds water to the flower-inspired structure on top. The second way is through collecting water from above – occurring in instances such as rainfall. In either case, water finds its way to the petals where the polypyrrole coating turns the water into steam. The impurities are naturally separated from water when condensed in this way. By the end of the purification process, the device can remove contamination from heavy metals and bacteria, as well as salt from seawater. The result is clean water that meets drinking standard requirements set by the World Health Organization.

In addition to the new, flower-like structure, the system was also designed to include a connection point for a low-pressure pump. This pump will help condense water more effectively. Once condensed, water will fall into a compact, sturdy and secure glass jar. Weigu Li, a Ph.D. candidate in Fan’s lab said that their “rational design and low-cost fabrication of 3D origami photothermal materials represents a first-of-its-kind portable low-pressure solar-steaming-collection system” could inspire a new wave of clean water production technologies.

Point of Use Water Filters Effectively Reduce Lead in Flint, MI Water

In the last decade, the discussion of lead in drinking water has been on the rise. While the Flint, MI water crisis may have been a catalyst for the recent uptick in awareness, lead poisoning from drinking water is not isolated to Flint alone. Schools and homes across the country are at risk for unhealthy lead levels in their water. In fact, 15-25 million homes in the U.S. are still connected to lead pipelines that were laid before they were banned in the late 1980s. In addition, 43 percent of school districts serving 35 million students across the country tested positive for lead. Of those, 37 percent found elevated levels and reduced or eliminated exposure, according to the U.S. Government Accountability Office.  

lead contaminated water being displayed in a milk jug to show contamination levels.

In addition to water utilities adjusting water chemistry to minimize the possibility of lead dissolving into tap water, customers can also do their part to help reduce lead levels. Although the best way to eliminate lead exposure in water is by replacing lead service lines and interior plumbing, there are in fact ways to minimize exposure to meet the EPA’s Lead Action Level in your home. One of these ways is through point of use (POU) water filters. Properly installed POU filters can potentially protect all populations, including children and pregnant women.

A recent study published in the Journal of Environmental Science and Health, showed that POU filters effectively reduced lead in drinking water in a demonstration field study in Flint, Michigan.

Intro to Point of Use Water Treatment Devices

Filtration of tap drinking water in homes through POU treatment devices has gained popularity due to recent concerns of lead contamination from service lines and interior plumbing materials. According to the field study, many POU filters utilize an outer fabric of fiber surrounding a solid block primarily composed of activated carbon. Activated carbon is great for purifying liquids and gases.

Materials and Methods for the Study

Flint residents received PUR and BRITA filters [certified under NSF/ANSI-53 (total lead) and NSF/ANSI-42 (Class I particulate)] for the study. Filtered and unfiltered water samples were collected to assess whether the NSF/ANSI-53 and NSF/ANSI-42 certified POU filters being distributed in Flint were effective for the reduction of lead, regardless of influent levels above the certification criteria of 150 micrograms/L (µg/L).

* NSF/ANSI 42, 53 and 401 are the leading industry standards for filtration products and systems.

Subsequently, filtered and unfiltered water grab samples were collected at each selected sampling location, generally at the kitchen faucet. Samplers recorded field observations including the filter type/brand, filter indicator status, and the resident’s estimate of the time since the filter or cartridge was installed. All samples were collected from the cold-water tap, and three types of 1000-mL samples were collected from homes:

1. Filtered Water, Existing Filter – First, one grab water sample was collected through the existing water filter at the home (if present).

2. Unfiltered Water – Second, an unfiltered water grab sample was collected after removing the existing filter or turning the by-pass valve on the filter. No cleaning or flushing took place prior to the water grab sampling.

3. Filtered Water, New Filter – Third, after the installation and flushing of a new filter or replacement filter cartridge for approximately 2 min, a grab sample was collected through the newly installed filter or filter cartridge.

Field Study Results

Unfiltered Water Samples – The maximum lead concentration in the unfiltered water at the 345 sampling locations in this study was 4,080 µg/L , with approximately 4% of the unfiltered water samples above 150 µg/L and over 37% above the Food & Drug Administration (FDA) standard for bottled water (5 µg/L).

Filtered Water Samples – Over 97% of filtered water samples contained lead below 0.5 µg/L. The maximum lead concentration in filtered water was 2.9 µg/L, well below the bottled water standard.

Removal of Additional Metals – The sampling showed incidental removal of copper, iron, manganese, and zinc despite the filters not being certified to remove miscellaneous metals.

In conclusiuon, POU filters proved to be a reliable option for the reduction of lead in this study. Faucet-mounted point of use filters can be an important barrier against unpredictable lead release from lead service lines and/or plumbing materials.

To ensure effectiveness, POU filters should be replaced per manufacturer recommendations.

Interested in what else you can do to help reduce exposure to lead in your drinking water?

Quick Tips:

  1. Use cold water for drinking, cooking, or making baby formula. Boiling your water will not remove lead from water. In fact, lead concentrations will increase because water evaporates during the boiling process.
  2. Before drinking water from the tap, flush your pipes by running the water faucet, doing a load of laundry, or taking a shower.
  3. Be sure that your faucets screen (aerator) is clean.

Technology Aims to Help States and Tribes Improve Water Quality Standard Public Hearings

States and tribes looking to maximize participation, simplify implementation and cut costs associated with public hearings are in luck. The U.S. Environmental Protection Agency (EPA) released a new resource that outlines 12 suggestions for how states and tribes can modernize the hearing process by implementing technology.

Under the Clean Water Act, states and authorized tribes are required to hold public hearings for the purposes of reviewing and adopting new or revised water quality standards. Because public participation is an important aspect of decision making on water quality standards, this new resource will be a great asset in increasing engagement within the community.

Modernizing Public Hearings for Water Quality Standard Decisions Consistent with 40 CFR 25.5

EPA’s document titled Modernizing Public Hearings for Water Quality Standard Decisions Consistent with 40 CFR 25.5 outlines ways to incorporate technology into public hearings while also continuing to meet federal requirements. The 12 suggestions in the document can help states and water quality standard-authorized tribes in two ways. For one, implementing technology in the hearing process will maximize opportunities for effective public input when it comes to water quality standard decision making. Secondly, incorporating such technology could facilitate in more efficient usage of spending resources by states and tribes.

Suggestions for Incorporating Technology into the Public Hearing Process

  1. Advertise online to help publicize the public hearing
  2. Use email lists to disseminate information to interested parties
  3. Post relevant public hearing materials online for easy access
  4. Conduct an in-person hearing while simultaneously broadcasting it via a web conferencing platform
  5. Conduct an online only public hearing using a web conferencing platform
  6. Use the internet to schedule witnesses in advance
  7. Encourage speakers to submit relevant materials or visual aids electronically in advance of the public hearing
  8. Allow unscheduled presenters to register to provide oral comments during an online public hearing
  9. Allow comments and questions to be made orally through a web conferencing platform
  10. Use a web conferencing platform’s chat/instant message feature
  11. Record the proceedings of the online public hearing
  12. Post the recorded public hearing online/on website

For a detailed description of each suggestion, please visit the online document file here.

Please note that these suggestions are not required and will not be imposed on any state or tribe. States and tribes have the choice to (or not to) incorporate any of these technologies into their public hearing process. In addition, there are also several factors that the EPA have considered in reference to these suggestions.

Considerations

  • The public’s accessibility to and acceptance of computers and the internet
  • The capacity of a state of water quality standard-authorized tribe to integrate and implement technology
  • The geographic scope of a water quality standard decision
  • The nature of a water quality standard decision
  • Presence of local decision-making or advisory boards
  • The state of water quality standard-authorized tribe’s overall public participation process
  • Public feedback on the integration of technology
  • Number of participants at each public hearing

Given that a large part of these suggestions are focused on online hearings, The EPA’s Modernizing Public Hearings document includes examples and milestones for planning an online hearing.

Here is the EPA’s milestone checklist, a super helpful tool to have handy when planning an online hearing.

Checklist provided by EPA for the implementation of technology in public hearings for water standards

As technology continues to evolve in the water industry, it’s certainly time for modern technological approaches to communicating to be implemented as well. So, what do you think?

For more information, please be sure to reference the EPA’s resource here. In addition, you can also contact the EPA directly with any questions.

Water and Wastewater Utilities: Be Hurricane Ready

As of June 1, hurricane season is in full effect through November 30. Areas along the Atlantic Coast, Gulf of Mexico, and the Hawaiian Islands are most vulnerable to hurricanes. As inhabitants within each of these areas take caution each year, it is equally important that water utilities do the same and become hurricane ready.

Due to heavy rainfall, inland flooding, and high winds of 74 mph or greater, hurricanes have the potential to cause serious damage to water and wastewater utilities. Some examples of the detrimental nature of hurricanes on water utilities include:

  • Pipe breaks that could lead to sewage spills or low water pressure throughout service areas
  • Loss of power and communication infrastructure
  • Combined sewer overflows (CSO)
  • Restricted access to facilities and collection/distribution system assets
  • Loss of water quality testing capability

The Environmental Protection Agency (EPA) has developed tools to help water utilities prepare for, respond to, and recover from hurricane related impacts.

satellite view of hurricane heading toward the east coast of USA

Preparing for Hurricane Season

Planning

  • Be sure your utility’s Emergency Response Plan (ERP) is up-to-date, and ensure all emergency contacts are current
  • Be sure utility staff is aware of all preparedness procedures by conducting trainings and exercises
  • Identify high-priority customers (such as hospitals), map their locations, and obtain contact information in the event of an emergency
  • Develop an emergency drinking water supply plan that may include bulk water hauling, mobile treatment units or temporary supply lines
  • Review historical records to understand the frequency and intensity of past hurricanes and how the utility may have been affected
  • In the event that you need to apply for federal disaster funding, complete pre-disaster activities. For example, taking photos of the facility to compare with post-damage photos

Coordination

  • Join your state’s Water/Wastewater Agency Response Network (WARN)
  • Get in touch with WARN members and other utilities to discuss ways in which help can be provided if needed. This includes outlining response activities and responsibilities; conducting full-scale exercises; obtaining resources and assistance; establishing interconnections between systems; establishing communication protocols to reduce misunderstandings
  • Coordinate with other key response partners, including your local EMA, to discuss potential points of distribution for the delivery of emergency water supply
  • Understand what your utility may be called on to do, as well as how local emergency responders and the local emergency operations center (EOC) can support your utility

Communication with Customers

  • Provide customers with materials that contain information on what they will need during a hurricane (i.e. information on water advisories and instructions for private well and septic system maintenance)
  • Distribute public information protocols with customers prior to a known storm (i.e. warnings that service disruptions are likely)
megaphone communicating news
Megaphone.

Facility and Service Area

  • Be sure to order and inventory existing equipment and supplies including:
    • Motors
    • Fuses
    • A two-week supply of chemicals
    • Cell phones and other wireless communication devices
    • Tarps/tapes/rope
    • Cots/blankets
    • First-aid kits
    • Foul weather gear
    • Flashlights/flares
    • Plywood
    • Sandbags
    • Bottled water
    • Batteries
    • Non-perishable food
  • Ensure that radios and satellite phones are working and fully charged
  • Develop a GIS map of all system components
  • Document pumping requirements, storage capabilities, and critical treatment components and parameters

Power, Energy and Fuel

  • Work with local power utilities to assure tree branches near power lines are trimmed
  • Inspect conditions, connections and switches of electrical panels
  • Document power requirements of the facility
  • Test generators regularly
  • Inform fuel vendors of estimated fuel volumes needed if utility is impacted
  • Reach out to local power providers to assure that your water utility is on the critical facilities list for priority electrical power restoration

Responding to a Hurricane – Pre-landfall Activities

Planning

  • Actively monitor hurricane activity

Facility and Service Area

  • Move equipment to water-tight facilities or out of flood-prone areas
  • Clear storm drains and set up sandbags to protect facilities
  • Be sure that back-up equipment and facility systems including controls and pumps are in worker order
  • Protect exposed lines or pipes that may be vulnerable during a storm
  • Fill storage tanks to full capacity and fill empty chemical storage tanks with water
  • Wastewater utilities should empty holding tanks, ponds and/or lagoons to prepare for an increase in flow

Personnel

  • Identify essential personnel and ensure they are trained to perform critical duties in an emergency
  • Establish communication procedures with both essential and non-essential personnel
  • Identify emergency operations and clean-up crews
  • Establish alternative transportation strategies if roads become impassable
  • Understand how limited staffing will impact response procedures if there are transportation issues or evacuations

Power, Energy and Fuel

  • Make sure vehicles and fuel tanks are filled to full capacity and ensure you can manually pump gas in the event of a power outage

Responding to a Hurricane – Post-landfall Activities

Coordination

  • Notify your local EMA and state regulatory agency of system status
  • Request or offer assistance through mutual aid networks, such as WARN, if needed
  • Assign a representative of the utility to the incident command post

Communication with Customers

  • Notify customers of any water advisories and coordinate with local media to distribute the message

Facility and Service Area

Overall

  • Assess the damage of the utility to prioritize repairs
  • Assure that back-up equipment and facility systems, such as controls and pumps, are in working order, and ensure that chemical containers and feeders are intact

Drinking Water Utilities

  • Inspect the utility and service area for damage
  • Ensure pressure is maintained throughout the system and isolate the sections where it is not
  • Control and isolate leaks in water transmission and distribution piping
  • Shut off water meters at destroyed properties
  • Monitor water quality
  • Notify regulatory agency if operations and/or water quality or quantity are affected
  • Utilize the pre-established emergency connections or create temporary connections to nearby communities as needed
  • If needed, implement plans to draw emergency water from pre-determined tanks or hydrants

Wastewater Utilities

  • Inspect the utility and service area for damage
  • Inspect the manholes and pipelines in flood-prone areas for inflow and infiltration after water recedes
  • Suspend solid waste processing during periods of high flow to conserve bacteria and prevent it from washing out of the plant
  • Notify regulatory agency of any changes to the operations or required testing parameters
waste water treatment plant

Documentation and Reporting

  • Document damage assessments, mutual aid requests, emergency repair work, equipment used, purchases made, staff hours worked, and contractors used to have open hand when applying for federal disaster funds
  • Work with local EMA on the required paperwork for public assistance requests

Personnel

  • Account for all personnel and provide emergency care, if needed
  • Deploy emergency operations and clean-up crews

Power, Energy and Fuel

  • Use back-up generators as needed
  • Plan for additional fuel needs in advance and coordinate fuel deliveries to generators
  • Stay in close contact with electric provider for power outage duration estimates

Recovering from a Hurricane

Coordination

  • Work with response partners to obtain equipment, funding, etc.

Communication with Customers

  • Be sure a utility representative is communicating with customers in reference to a timeline for recovery

Facility and Service Area

  • Complete damage assessments
  • Complete repairs, replace depleted supplies and return to normal service

Documenting and Reporting

  • Compile damage assessment forms and cost documentation into a single report to share, in addition to, state and federal funding applications
  • Create a ‘lessons learned’ document and/or after action report (AAR) to keep record of response activities
  • Revise budget and asset management plans

Mitigation

  • Identify mitigation and long-term adaptation measures that can prevent damage and increase utility resistance. Examples of successful mitigation projects by water and wastewater utilities include:
    • Providing protection to electrical substation and transformers that would be in danger of failing during floods, high winds and storm surges
    • Retrofitting sanitary sewer lift stations with electrical connections for portable generators
    • Elevating generators, fuel tanks and critical controls to protect from coastal storm surges
    • Replacing existing entry doors with heavy-duty impact-resistant doors

For more information on how to prepare for and respond to hurricane impacts and for a printable checklist to utilize within your water or wastewater utility, please visit the EPA’s site here.

2019 Summer Interns

Tata & Howard is excited to welcome the newest group of summer interns to our team! As a company focused on continued learning, we are thrilled to play a role in teaching the next generation of engineers.  Without delay, please join us in welcoming our new summer team members!

JONATHAN – Marlborough Office

Jonathan is a rising senior at the University of Massachusetts Amherst. He is studying Civil/Environmental Engineering with a focus on water resources.

On campus, Jonathan is the Vice President of Engineers Without Borders, an organization that works to implement water solutions to communities in Africa. He also works in the Engineering Office of Student affairs where he advises engineering students. In addition, Jonathan serves as a student ambassador for engineers looking to study abroad.

Outside of his studies, Jonathan enjoys playing soccer as well as spending time outside with friends and family, be it on the beach or hiking.

This summer, Jonathan hopes to obtain experience in the environmental engineering industry while making connections here at Tata & Howard. He comes to our Marlborough office inspired to provide solutions for people who lack safe drinking water.

MARLEE – Marlborough Office

Joining us for a second summer internship, Marlee is a rising junior at Villanova University. She is studying Civil and Environmental Engineering and will also minor in Sustainability Studies.

She is a member of the Society of Women Engineers (SWE) and serves as a peer mentor for freshman engineering students through the University’s CEER PEERs program. Marlee also is a member of the Kappa Kappa Gamma sorority where she is involved with the Philanthropy Committee.

Marlee is excited to build upon the relationships she built last year with members of the T&H team, and is eager to gain more insight as to how environmental engineering is applied in a consulting setting. Working with our engineers, she is most interested in exploring water quality and helping people gain access to clean water for everyday use.

In her free time, Marlee loves spending time with her friends, listening to music, and reading. This summer, she plans on taking beach trips to Cape Cod, spending time at the lake in Vermont, and enjoying the great outdoors. 

ALEX – Waterbury Office

summer intern alex will be working in the waterbury ct office

Alex attends the University of Connecticut and majors in Environmental Engineering. This summer he will be joining us in our Waterbury, CT office.

During the school year, he serves as a Research Assistant to two professors, and is a member of a bioenergy group on campus. Alex is most interested in water treatment and quality engineering and pipe systems.

In his free time, he enjoys cooking, hiking, and kayaking. When he isn’t in the field with T&H engineers, he will be working at a wedding venue in Portland, CT.

EMILY – Waterbury Office

Summer intern emily - will be workin in waterbury, ct office

Emily will be joining Tata & Howard in our Waterbury, CT office for the duration of the summer.

A rising senior, Emily studies Environmental Engineering at the University of Connecticut. At UCONN, she keeps busy as a member of the Society for Women Engineers while also playing women’s rugby and intramural sports.

Emily is excited about her role at T&H this summer, and hopes to use her experience in deciding what her first career move will be upon graduating next year. Fueled by an interest in marine renewable energy, Emily wants to use her engineering degree to help create clean energy. Additionally, she also has an interest in big water structures such as dams.

This summer, she plans to camp, bike, and travel to new places to explore and hike new mountains.

We are excited to have all of our summer interns on board!

PFAS Sites Increasing Across the Country

Contaminants known as Per- and polyfluoroalkyl Substances (PFAS) are increasingly being detected in water samples both in the United States and around the world. As of June 2022, 2,858 locations in 50 states and two territories are known to be contaminated.

What are PFAS?

PFAS are manmade chemicals that have been used in both industry and consumer products since the 1950s. Perfluorooctanoic acid (PFOA) and perfluorooctane sulfonate (PFOS) are the most extensively produced and studied compounds of these chemicals. Both chemicals are very persistent in the environment and in the human body. Consequently, they don’t break down and they can accumulate over time.

PFAS Most Commonly Seen In:

  • Non-stick cookware
  • Products that resist grease, water and oil
  • Water-repellent clothing
  • Stain resistant fabrics
  • Firefighting foams
  • Some cosmetics
Jake May/The Flint Journal, via Associated Press

Exposure to PFAS can happen through a variety of ways including:

  • Drinking contaminated municipal water or private well water
  • Eating fish from a source contaminated with PFAS
  • Swallowing contaminated soil or dust
  • Eating food packaged in material containing PFAS
  • Using consumer products including the ones listed above

PFAS Sites and Treatment

A recent analysis of Massachusetts public water systems by the Sierra Club finds that 70% of communities have detectable levels of the six most dangerous PFAS chemicals in their ground and surface waters. When looking at a wider range of PFAS chemicals, 91% of communities have detectable amounts in at least one of their drinking water sources (pre-treatment).

As a leader in water, wastewater, stormwater, and environmental engineering services, Tata & Howard has proven expertise in the removal of PFOA and PFOS. For instance, recent treatment experience includes the design of the new Maher Filtration Plant in Barnstable, Massachusetts. Tata & Howard designed this plant in an effort to treat the elevated levels of PFOA, PFOS, 1,4 Dioxane, and iron and manganese in the three drinking water production wells at the existing treatment facility. Using granular activated carbon filtration, the successful removal of PFOS/PFOA will be obtained in the new filtration plant.  The greensand pressure filtration will remove the iron and manganese while also extending the useful life of the granular activated carbon.

To learn more about treatment options, please contact us directly at 508.303.9400.

Stormwater Pollution and Lawn Maintenance

During the spring and summer months, stormwater pollution is especially prevalent. Water resulting from precipitation and snow/ice melt either soaks into exposed soil or remains on top of impervious surfaces. As stormwater flows as runoff to nearby waterways, it picks up pollutants including debris, sediment, pesticides, fertilizers, pet waste and more.

A major contributor to stormwater pollution is traced back to residual excess from lawn care maintenance – particularly with fertilizers and lawn clippings.

Check out the five tips below for ways to reduce stormwater pollution when it comes to your lawn maintenance.

 

Please feel free to print and share our Stormwater Pollution and Lawn Maintenance Infographic with attribution to Tata & Howard, Inc. A high-resolution pdf can be downloaded by clicking here.

Use Fertilizer Sparingly

A little goes a long way. Many plants don’t need as much fertilizer or need it as often as you think. Reduce stormwater pollution by minimizing your fertilizer during the spring and summer.

Use Organic, Phosphorous Free Fertilizers

In addition to reducing stormwater pollution with the amount of fertilizer you use, it’s equally important to use the proper type. Organic, phosphorous free fertilizers release nutrients slower and are less detrimental to the environment.

Proper Disposal of Waste

One of the best ways to reduce stormwater pollution is with the proper disposal of lawn waste. Leaves and grass clippings can wash into storm drains, adding unwanted nutrients to streams.

Excess Water

Stop pollutants from making their way into the storm drain by avoiding over-watering as well as fertilizing before a rainstorm.

Cut Down on Water Waste

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.

Infrastructure Week 2019

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.

infrastructure week photo with stat stating that 'most Americans' wter systems have been in operation for 75-100 years - well past their lifespans.

The High Cost of Water Infrastructure

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.

Drinking Water Infrastructure

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.

Dams

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.

Wastewater

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.

 

Get to Know Local Water During Drinking Water Week

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.

drinking water week logo

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.”

young girl drinking water from outdoor water fountain

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.