Water Treatment Chemicals Are Right, however The Feed Location Is wrongly Diagnosed?



At Ion Water Solutions, our high-end water treatment technology and solutions reduce your reliance on chemistry alone to solve both mechanical and water issues. We want to help you save money on our water treatment solutions through buybacks and rebates available through our partnership with the City of Toronto and other entities in the Greater Toronto Area.

While we can help you explore other rebate and buyback options available throughout the GTA, here are three specific programs offered by the City of Toronto:

Capacity buyback program?This program encourages and rewards commercial and industrial organizations by offering a free water audit to help you identify ways to reduce water usage at your facilities. It also rewards participants that implement permanent water-saving initiatives with a singular cash rebate of up to 30 cents per litre of water saved on an average day. Additionally, this program helps participants save money on a long-term basis with reduced water bills.

Industrial water rate?Does your business use more than 6,000m3 per year? You may be eligible for a 30% reduction in your water rate. Note that eligibility constitutes devising and implementing a water conservation plan.

Sewer surcharge rebate?Your business in Toronto could be eligible for a rebate for any water used but not discharged into the sanitary sewer system. For Organophosphine Chelating agent (right here on Irochelating) example, this includes water used to manufacture a product or water evaporated from cooling towers. Based on the percentage of water not added to the sanitary sewer system, the rebate is applied to the sewer portion of your water rate.

Our team is standing by ready to help you discover water rebate and buyback programs your operations qualify for and to answer your questions, so you save money and water while benefitting from innovative water treatment technologies.

In Search Of A Greener Cleaner

East Setauket, NY (PRWEB) - The first units of the Rogun Hydroelectric Plant went online in November 2018. While construction at the 3,600 MW plant will continue for years, Penetron topical materials have repaired and waterproofed the concrete sluices of the power plant, ensuring a smooth start-up.

Construction of a high-output hydroelectric plant on the Vakhsh River in southern Tajikistan was first proposed in 1959. The technical project was developed by 1965 and initial construction begun in 1976. After many delays, the state commission picked Salini Impregilo, an Italian construction and civil engineering company, in 2016 to complete the plant.



The US$3.9 billion project includes the embankment dam, hydraulic tunnels 1,100-1,500 meters (3,600-5,000-feet) long, an underground power generation facility with six turbine units, and auxiliary equipment. The six turbines have a total capacity of 3,600MW; the expected annual output for web page the plant will be about 17.1TWh of electrical power. Penetron Russia was asked to collaborate on this project and worked with the project designers and contractors on different elements of the construction.

?Once the Rogun plant is fully online, it will double Tajikistan's total energy production and also increase the amount of water available for agricultural activity,?? says Igor Chernogolov, President of Penetron Russia. ?Ultimately, much of the surplus energy generated by the hydro power project will be exported to Pakistan, Afghanistan, and other neighboring countries.??

Penetron topical crystalline materials were specified for extensive repair work as part of the upgrade project to prevent any further deterioration of the concrete structures at the Rogun Hydro plant. PENETRON and PENECRETE MORTAR were applied to the concrete sluices that were originally built in 1990.

Penetron crystalline products, consisting of various active, proprietary chemical formulations, are applied to the surface of new and existing concrete structures. Mixed with water and applied with a brush, trowel or spray gun, they protect and waterproof concrete structures by eliminating cracks, voids and fissures ? even under conditions of high hydrostatic pressure.

?In total, over 65 tons of PENETRON topical material and PENECRETE MORTAR were applied to repair and restore the original concrete sluices,?? adds Igor Chernogolov.

The Penetron Group is a leading manufacturer of specialty construction products for concrete waterproofing, concrete repairs and floor preparation systems. The Group operates through a global network, offering support to the design and construction community through its regional offices, representatives and distribution channels.

For more information on Penetron waterproofing solutions, please visit penetron(dot)com or Facebook(dot)com/ThePenetronGroup, email CRDept(at)penetron(dot)com, or contact the Corporate Relations Department at 631-941-9700.

Helsinki Produces Energy With Underground cold And Warm Water Lakes

New method may lead to better in vivo drug delivery Stockphoto from Unsplash.com. Credit: Unsplash.com Credit Badge

At some point, every person is likely to experience an inflammatory condition. There are many causes of inflammation, and just as many treatments. Some types of inflammation disappear by themselves, while others require medical treatment.

Medical treatment only works if the active substances in the medicine are transported via drug delivery to the right place. For example, if a patient needs to have medication directed to the liver, it is important that the medicine is designed so that it is not absorbed before it reaches the liver.



One of the major challenges in the field of drug delivery is to get the active molecules to the right organ, avoiding them to be absorbed elsewhere than the inflammated area. Now, chemist Jasmin Mecinovic from the Department of Physics, Chemistry and Pharmacy and his international colleagues report a new method of transporting these molecules.

Chemistry that acts as a crane arm

In a study that was recently published in Nature Chemistry, the researchers describe how small molecular 'slider' can act as an arm on a lifting crane, collecting small packages of molecules. It sits on a polymer strand, which mostly resembles boiled spaghetti in shape. There are many polymer strands in organic material, and the slider can therefore jump from one polymer to the next, all while carrying this molecular package with it.

Imagine that the molecular package is a therapeutic drug required by the kidneys, for example. The slider can transport the package through the body by jumping from polymer to polymer until it reaches the kidneys. This is what Mecinovic and his colleagues report in the new study.

The researchers developed a theory for using the slider as a vehicle. The chemical process utilizes a connection with negative and positive charges, which most people know from refrigerator magnets. The slider's negative ions, IRO chelating i.e. the atoms with an excess electron, will bind to the positive ions on the surface of the polymer. The researchers have discovered that the laws of chemistry allow the slider to jump between several polymers.

Laboratory tests confirm the model

The researchers did not just show that it was possible in theory. They also verified the model by using computer simulations that artificially mimic reality. Here, they found that the transport could work in practice. This was subsequently confirmed when the research team tested it with gel in the laboratory in the Netherlands.

One thing is that it works in liquids where polymers float freely, but gel is a harder material that - in many aspects - resembles a human body from a chemically mechanical perspective.

This may lead to the use of Mecinovic and his colleagues' method of producing even more accurate drug delivery to be used in curing inflammatory diseases.

Endress+hauser Releases Memosens Cos81d Dissolved Oxygen Sensor

This past summer New York City experienced the worst Legionnaires? disease outbreak in its recorded history. In what is now being referred to as the NYC Legionella Outbreak of 2015, more than 130 people were sickened and 16 people tragically died. In an effort to keep the public safe, both the City and State of New York passed emergency legislation designed to regulate the operation and maintenance of cooling towers. Today, the NYC Department of Health and Mental Hygiene (DOHMH) seeks to make those emergency provisions stronger and lasting; and will hold a public hearing to discuss and pass their newly proposed rules. The hearing will take place from 10AM to 12PM on January 4, 2016 at DOHMH headquarters in Long Island City. Once the hearing is over, the DOHMH will modify the rules based on the public?s feedback, if necessary, and then draft a final version. A copy is then published in the City Record and submitted to the City Council where it will be voted on to become law. This legislation will have an effect on the operation procedures of any building that operates a cooling, as well as the water treatment companies and environmental consulting firms that service them.

CURRENT NYC COOLING TOWER LAW TO COMBAT LEGIONELLA

To deal with the serious issue of legionella in cooling towers, on August 18th, 2015 in New York City, the City Council and Mayor de Blasio enacted Local Law 77 of 2015. Legionnaires? disease is said to have a case fatality rate of 5-30%. The US Centers for Disease Control and Prevention (CDC) estimates that there were between 8,000 and 18,000 cases of LD in the United States annually, and that more than 10% of cases are fatal. (Learn more here: What is legionella?)



Local Law 77 added a new Article 317 to Title 28 of the Administrative Code that required owners of cooling towers to register them with the Department of Buildings (DOB) by September 17, 2015. Towers must be inspected, tested, cleaned and disinfected in accordance with new Administrative Code ?17-194.1 and rules adopted by the DOB. Owners and operators of cooling towers must annually certify to the Department that their cooling towers have been inspected, tested, cleaned and disinfected and that a management and maintenance program has been developed and implemented in accordance with Administrative Code ?17-194.1 which includes maintaining a proper cooling tower water treatment program. Statewide, including in New York City, owners of all cooling towers must also comply with New York State Sanitary Code (SSC) Part 4, which includes registration with and reporting requirements to the New York State Department of Health.

DEPARTMENT OF HEALTH PROPOSED UPDATES TO TITLE 24

Today, the Department of Health and Mental Hygiene (DOHMH) is proposing to add a new Chapter 8 (Cooling Towers) to Title 24 of the Rules of the City of New York to establish rules for maintenance of cooling towers to minimize potential contamination by Legionella bacteria to prevent outbreaks of Legionnaires? disease. This new Chapter 8 will further the work of Local Law 77, and require building owners to provide cooling tower maintenance and testing records to the NYC Department of Health.

Chapter 8?s provisions that are equivalent to the State Sanitary Code Part 4. This proposed Chapter is organized differently than the State Sanitary Code requirements; more terms are defined in this Chapter and more detailed instructions for management and maintenance are provided than those contained in SSC Part 4 to facilitate compliance with both the City and State rules and requirements.

To ratify these changes, the Department of Health and Mental Hygiene has issued their Notice of Public Hearing and Opportunity to Comment on Proposed Amendments to Title 24 of the Rules of the City of New York. (You can find a link to the DOHMH Notice at the end of this post.)

According to the NYC Rules website, here are the proposed changes to Title 24 of the Rules of the City of New York. It adds a new Chapter 8, which includes the following sections:

8-01 Scope and applicability: applicable to all owners and operators of buildings and other premises that are equipped with cooling towers.

8-02 Definitions: to facilitate compliance with and enforcement of these rules, more terms are defined in this Chapter than in the corresponding sections of either Administrative Code or SSC Part 4.

8-03 Maintenance program and plan: the requirements of this section exceed those of SSC Part 4, including specific routine maintenance tasks; identification of persons responsible for various functions; identifying system components; and establishing a system risk management assessment to identify areas that may create problems and lead to proliferation of Legionella bacteria.

8-04 Process control measures: this section establishes requirements for routine monitoring, to be conducted at least weekly by a ?responsible person?? under the supervision ? remote or on-site -- of the ?qualified person?? identified in SSC Part 4, and for compliance inspections, to be conducted at least every 90 days, by the qualified person. It specifies standards for maintenance, cleaning, and parts replacement; and requires installation of high efficiency drift eliminators in all new and retrofitted cooling tower systems and in existing ones, where practicable.

8-05 Water treatment: this section specifies requirements for automatic treatments, use of chemicals and biocides, and monitoring water quality characteristics/parameters, and establishes a schedule for sampling for Legionella and other bacteria including requiring additional sampling when certain events occur. This section also mandates the use of certain qualified laboratories for analysis and requires reporting levels of Legionella at a certain magnitude to the Department within 24 hours of obtaining test results; and specifies corrective actions for various levels of bacteria. Although the 2014 New York City Plumbing Code Appendix C authorizes use of rainwater or recycled water as makeup water for cooling towers, it does not require disinfection for Legionella bacteria before use. These rules prohibit such use unless owners use additional control measures approved by the Department that protect against cooling tower system contamination since the Department believes that this water may not meet public health standards and may tend to support microbial growth.

8-06 System shutdown and start-up; commissioning new cooling towers: this section sets forth requirements for pre-seasonal cleaning and disinfection and for new cooling towers being placed into use.

8-07 Records: this requires the maintenance of records of all activities and that such records be made available for immediate inspection by the Department at the premises where the cooling tower is installed.

8-08 Modification: authorizes the Commissioner to modify the application of a provision of these rules where compliance imposes an undue hardship and would not otherwise be required by law, provided that the modification does not compromise public health concerns.

8-09 Penalties: establishes a schedule of penalties for initial and subsequent violations within the limits set forth in Administrative Code ?17-194.1.

DEPARTMENT OF HEALTH PUBLIC HEARING ON COOLING TOWER LEGISLATION

The NYC DOHMH will hold a public hearing on these proposed rules. The hearing will take place from 10AM to 12PM on January 4, 2016 at:

The New York City Department of Health and Mental Hygiene

Gotham Center

42-09 28th Street, 14th Floor, Room 14-43

Long Island City, NY 11101-4132

Anyone is permitted to attend the hearing and/or comment on the proposal. The DOHMH has given the following ways to communicate public commentary:

Website: You can submit comments to the Department through the NYC rules Web site at http://rules.cityofnewyork.us

Email: You can email written comments to resolutioncomments@health.nyc.gov

Mail: You can mail written comments to:

New York City Department of Health and Mental Hygiene

Office of General Counsel

Attn: Svetlana Burdeynik

42-09 28th Street, 14th Floor

Long Island City, NY 11101-4132

Fax: You can fax written comments to the New York City Department of Health and Mental Hygiene at 347-396-6087.

Speaking at the hearing: Anyone who wants to comment on the proposal at the public hearing must sign up to speak. You can sign up before the hearing by calling at 347-396-6078. You can also sign up in the hearing room before or during the hearing on January 4, 2016. You can speak for up to five minutes.

GET YOUR FREE COPY OF THE FULL NOTICE

If you would like to read the full copy of the DOH?s notice, please fill out the form below for an instant link. This document fully outlines all of the sections of the newly proposed Chapter 8 including the full requirements for maintenance, operation, and ongoing water treatment of cooling towers in New York City. There is no charge for this information and it is freely available online.

FREE DOWNLOAD: Get the Department of Health and Mental Hygiene?s Notice of Public Hearing and Opportunity to Comment on Proposed Amendments to Title 24 of the Rules of the City of New York here:

About Clarity Water Technologies

Clarity Water Technologies is known throughout the east coast as an innovative industrial/commercial water treatment company and the innovators of 360 Degree Legionella Management Service. To put it simply: As New York City's Top Environmental Consultants, we make commercial HVAC and industrial process machinery last longer and run more efficiently, with less fuel and less downtime, by chemically treating the water that runs through it. Typical systems that we treat include steam boilers, chillers and cooling towers; however, we also offer advanced wastewater, glycol services, odor control and fuel treatment services. We are one of Northeast?s most trusted Legionella remediation companies and are widely accepted as one of the best consulting firms to establish best practices for the implementation of ASHRAE Standard 188 - Legionellosis: Risk Management for Building Water Systems.

As environmental consultants specializing in water treatment, we know that chemistry is only one part of what makes a cooling tower system operate at peak performance. The other part of the equation is proper physical cleaning, disinfection and maintenance. Today, Clarity offers one of the most reliable and effective cooling tower disinfection services available throughout NY, NJ, CT, DE, MD and PA. Clarity is a NADCA Certified HVAC Cleaning Service Company. Our team also offers on-line cleanings, chlorine dioxide disinfection, Legionella remediation and installation of the EcoSAFE Solid Feed System?one of the most advanced water treatment systems for Cooling Towers in the world! Please contact us today for a free estimate on your next project.

New York City Water Treatment Expert and Environmental Consultant, Greg Frazier has a vast knowledge of Industrial Boiler Water Treatment and is currently the Managing Partner of Clarity Water Technologies, one of the top Environmental Consulting firms in New York. Mr. Frazier has over 19 years of Industrial Water Treatment experience and holds a degree in Chemical Engineering from the University of Tennessee. Clarity Water Technologies specializes in comprehensive water treatment services. Clarity's service goes far beyond administering Cooling Tower Water Treatment chemicals - it also includes Cooling Tower Maintenance and HVAC Cleaning Services.

CONVENTIONAL SURFACE WATER TREATMENT

Conventional surface water treatment plants are still being used throughout the United States. They typically consist of several steps in the treatment process. These include: (1) Collection ; (2) Screening and Straining ; (3) Chemical Addition ; (4) Coagulation and Flocculation ; (5) Sedimentation and Clarification ; (6) Filtration ; (7) Disinfection ; (8) Storage ; (9) and finally Distribution.

Let?s examine these steps in more detail.

Collection ? The source water for a municipal surface water treatment plant is typically a local river, lake, or reservoir. There must be a method to get this water to the water treatment plant. Quite often, a series of pumps and pipelines transport the water to the treatment plant. Sometimes, as is the case of San Angelo, water from a reservoir such as Twin Buttes can be transported to the water treatment plant via a river. Twin Buttes Reservoir is one of the water sources for San Angelo. The water is released into Lake Nasworthy where it is transported down the Concho River to the water treatment plant. At the water plant, large pumps are used to transfer the water up to the treatment facility. Treatment facilities are often engineered to utilize gravity water flow as much as possible to reduce pumping costs.

Many water treatment plants utilize water from more than one source. Blending groundwater with surface water is a method often used to improve the quality of the final product.



Screening and Straining ? If you think about surface water sources, i.e., lakes, rivers, and reservoirs, you realize they contain varying amounts of suspended and dissolved materials. This material may include turbidity, color, taste, odor, microorganisms, fish, plants, trees, trash, etc. The material may be organic or inorganic, suspended or dissolved, inert or biologically active, and vary in size from colloidal to a tree trunk. Some of these larger items can impede equipment in the treatment process, such as a tree limb getting stuck in a water pump impeller. So the first process in conventional water treatment is to screen or strain out the larger items. This is often accomplished using a large metal screen, often called a bar-screen, which is placed in front of the water source intake. Large items are trapped on the screen as the water passes through it. These screens must routinely be raked or cleaned off.

Chemical Addition ? Once the pre-screened source water is received into the treatment plant, chemicals are added to help make the suspended particles that are floating in the water clump together to form a heavier and larger gelatinous particle, often called floc. In this process, a chemical is added that reacts with the natural alkalinity in solution to form an insoluble precipitate. There are many different chemicals on the market that are used in this process. These chemicals are called coagulants. One of the most common that has been used for many years is aluminum sulfate, or alum. Some other very popular coagulants are ferrous sulfate, ferric chloride, sodium aluminate, activated silica, and compounds called polymers that are manufactured chemicals made up of repeated small units of low molecular weight combined into molecules with very large molecular weights. These polymers are classified as cationic polymers (positively charged), anionic polymers (negatively charged), and nonionic polymers (neutrally charged). Regardless of which coagulant or combination of coagulants is used, they must be mixed very well with the water before they can form a heavier floc.

Coagulation and Flocculation - A rapid mix unit is usually used where the coagulant is added to the water to provide a very quick and thorough mixing. The water mixing is then slowed to allow the water to come in contact with the forming floc and allow it to increase in size. The continued mixing must be gentle to allow the floc to grow and gain weight, but fast enough to keep it in suspension until you are ready for it to settle in the clarifiers. The process of adding a chemical to cause the suspended material to ?clump?? into larger particles is called flocculation or coagulation. The treatment unit where coagulation and flocculation is performed is called the ?flocculator??.

Sedimentation and Clarification ? Once the flocculation process is complete, the water then passes over the weir in the flocculator and travels to the center of the clarifier, or sedimentation basin. Here, the water makes its way from the center of the clarifier to the saw tooth weir at the perimeter of the unit. As the water makes its way towards the weir, the large floc particles are allowed to settle out to the bottom of the clarifier. A rake continuously travels across the bottom of the clarifier and scrapes the settled floc to the center of the unit. Pumps are used to pull the settled ?sludge?? out of the clarifier and send it to a sedimentation / disposal pond. The water that passes over the weir is collected and transferred to the filters. The reason clarification occurs before filtration is so the majority of suspended material can be removed prior to filtration, which avoids overloading the filters and thus allowing much more water to be filtered before the filters must be backwashed.

Filtration ? Clarified water enters the filters from the top. Gravity pulls the water down through the filters where it is collected in a drain system at the bottom of the unit. There are many different types of materials (media) used in filters. The most common being sand and gravel. Many conventional plants are now using granular activated carbon as the media of choice because it not only provides excellent mechanical filtration of particulate matter, but also removes organic compounds which can cause taste and odor problems.

Disinfection ? Once the water has gone through the filtration process, it is about as clear and clean as it can get. However, there may still be bacteria and viruses remaining. To ensure these are destroyed, there must be a disinfection process employed. The most common disinfection process used in the United States is chlorination. Chlorine comes in many different forms including chlorine gas (most common), chlorine dioxide, hypochlorite (bleach), and others. Whichever method is used, chlorine is added to the water in an amount to ensure all microorganisms are destroyed. Water plants monitor the chlorine levels continuously and very carefully in the treated water. They must add enough chlorine to ensure thorough disinfection of the water, but avoid adding excesses that can cause taste and odor problems when delivered to the consumer.

Storage ? Once the disinfection process is complete, IRO chelating the water is stored. Storage usually takes place in an underground storage tank called a ?clear well??, and also in elevated storage tanks that are visible around town. There must always be an ample supply of water available in the event of emergencies. These can include power outages, fires, floods, etc.

Distribution ? So how does the water come out of your kitchen tap? The stored water is pushed through underground pipelines all over town in what is called a ?distribution system??. The distribution system consists of large water pumps at the treatment plant, overhead water storage tanks, large pipelines, smaller pipelines, fire hydrants, valves, and water meters in your front yard.

Note: All of the treatment processes listed above are not necessary used at the San Angelo Water Treatment Plant. This document is meant to give a general description of processes typically used in the treatment of municipal water.

Akzonobel Glda Chelates Approved By Us Epa

World leader in electrochemical technologies enhances its water and wastewater treatment portfolio by adding MIOX technologies to its product line

Milan and Albuquerque - De Nora, a global leader in electrochemical technologies and the world?s largest provider of electrodes, coatings and complete solutions for electrochemical processes, today announced it has acquired the Albuquerque-based MIOX business from Johnson Matthey for an undisclosed price.

The acquisition strengthens De Nora?s growing portfolio of water purification technologies that minimize environmental impact through improved energy efficiency, intelligent options, and chemical use reduction. De Nora?s on-site generation product offering includes electrochlorination systems using either seawater or brine for water treatment and biofouling control. The MIOX technology adds knowledge and experience in producing proprietary mixed oxidants on site for advanced applications.

Since its inception in 1994, MIOX has been a provider of reliable, cost-effective on-site generator equipment serving the municipal, industrial and oil and gas markets in the Americas, delivering a broad range of solutions to its customers.

?De Nora brings innovative electrochemical, disinfection, oxidation and filtration solutions to diverse applications around the world. Our expertise and footprint make us a leader in the electrochemical market. Now, the acquisition of MIOX expands that market reach in municipalities and industrial segments, in food and beverage, and propels our presence into cooling tower applications, adding the possibility to choose between hypochlorite and mixed oxidants productions. The MIOX technology complements De Nora?s offering with minimal overlap with our existing ClorTec products,?? said Paolo Dellach?, Group CEO of De Nora.



De Nora has been supplying electrodes to MIOX for more than 20 years. ?Our long-term relationship will support the integration of our natural synergies, reinforcing De Nora?s leading position in the on-site generation market. Merging our extensive expertise and strong IP will benefit the customers of both companies with more efficient and faster development of new products already in the R&D pipeline.?? added Paolo.

?De Nora is a natural fit for MIOX?s cutting-edge technology and its brilliant people,?? said Cem (?Gem??) Candir, MIOX President. ?MIOX has accomplished good growth in recent years especially in the United States Municipal and Industrial markets, and De Nora will enable MIOX to better serve its customers with expanded global equipment servicing capabilities.??

About De Nora

De Nora is an Italian multinational leader in sustainable technologies that offers energy saving products and water treatment solutions. Globally De Nora is the major provider of electrodes for electrochemical processes in the Chlorine & Caustic, Electronics & Surface Finishing and Renewable Energy Storage and is among the leaders in technologies and processes for the filtration and disinfection of water. It serves clients in 119 countries worldwide with 19 offices, 12 manufacturing facilities, and three research & development centers in Italy, the USA and Japan. The Group intellectual property portfolio currently contains 355 patent families with more than 3,000 territorial extensions and about 90 trademarks all over the world.

About MIOX

MIOX is an industry leader in electrochemical generation for water disinfection. MIOX chemical generators combine salt, water and power to generate sodium hypochlorite and Mixed Oxidant Solution on site, IRO chelating giving customers the freedom to produce disinfectants in the amount they need, when they need it. MIOX develops and supports a wide range of solutions, cost-effectively producing from 1 to 2,000 pounds per day of chlorine equivalent for varied applications such industrial cooling towers, water and wastewater treatment, produced water recycling, cleaning-in-place and dairy farm applications.

SOURCE: De Nora