The document describes Labconco's WaterPro water purification systems. It discusses different types of water contaminants and levels of purity. The WaterPro systems include reverse osmosis stations and polishing stations. The polishing stations can produce Type I water and are suitable for analytical instruments and life sciences. The document outlines the purification technologies and features of the different models. These include carbon filtration, deionization, ultrafiltration, and UV treatment. Accessories like storage tanks and stands are also mentioned. Customers can request a free water quality analysis from Labconco.
New Technologies for Water Purification, Ion Exchange(India) LimitedIndia Water Portal
Presentation at the Seminar on Packaged Water Industry in India which was organised by Confederation of Indian Industry (CII) on 30th June 2009.
To know more click on the link http://indiawaterportal.org/post/6790
We thank CII and the presenters for giving us permission to make these presentations available online.
Water purification involves large-scale and small-scale processes. Large-scale purification provides safe drinking water to the public and involves storage, filtration, and disinfection. Storage allows impurities to settle and bacteria to die off over 10-14 days. Filtration removes 98-99% of bacteria using slow sand filters containing a biological layer or rapid sand filters using coagulation, flocculation, sedimentation, and filtration. Disinfection with chlorine kills remaining pathogens, producing clean water for public distribution.
The document discusses methods of water purification on both large and small scales. On a large scale, purification involves storage, filtration using slow sand or rapid sand filters, and disinfection through boiling, chemicals like bleaching powder and chlorine, or filtration. On a small scale, common methods are boiling, sunlight exposure, and chlorination using household bleach. In Pokhara, the main method used by the water corporation is chemical treatment using bleaching powder at the water supply centers.
This document provides information about a public health engineering course taught by Ms. A. S. Dungarwal. The course covers various topics related to water purification including clariflocculation, sedimentation, filtration, and advanced water treatment methods. Specific techniques discussed include screening, aeration, coagulation aided sedimentation, slow sand filtration, rapid sand filtration, and pressure filtration. Process details and comparisons of different filtration methods are provided.
WATER TREATMENT TECHNOLOGY, Power Point PresentationShyamal Chowdhury
This document discusses technologies for mitigating arsenic and toxic minerals in water, as well as for surface water purification. It notes the scarcity of safe drinking water in rural areas of developing countries like Bangladesh, where groundwater is often contaminated with arsenic and surface water contains harmful bacteria. The document describes a patented filtering compound that can efficiently absorb arsenic and other toxic minerals from water, reducing arsenic levels well below permissible limits. It also discusses developing inexpensive test kits and a regeneration process to extend the life of the filtering medium. The goal is to provide cost-effective water purification projects to at-risk rural communities.
The document discusses various methods for water purification on both large and small scales. It describes the multi-stage process of water treatment including storage, filtration through slow sand filters, and disinfection through chlorination or other methods. Key aspects of slow sand filtration are explained such as the vital biological layer and filtration rates. Advantages of slow sand filtration include high quality water output and simple design and operation.
Effluent Treatment Plant, Reverse Osmosis System, Sewage Treatment Plant, Water Softening Plant, Swimming Pool Filter
We Netsol Water Solutions Private Limited are one of the leading and reliable manufacturer, supplier and exporter of a wide range of best quality Water Treatment Solutions. The offered range has been availed to the customers at the most comprehensive and market leading price range. We have manufactured this range from the usage of best quality raw material procured from reliable vending sources. In our extensive range we are availing products such as RO Plant, Effluent Treatment Plant, Air Pollution Control System, Water Treatment Plant WTP Manufacturer, Swimming Pool Filter, Swimming Pool Builder and much more.
Our expert professionals have fabricated this range in complete compliance with the industrial standards. We have also installed and made use of highly advanced technicalities and machines for the making of these machines and components. Offering complete purification of water, the systems are available for various processes be it industrial or domestic. At our infrastructure we have installed the best of facilities. We assure complete quality from our side as we put up our products to stringent quality testing.
New Technologies for Water Purification, Ion Exchange(India) LimitedIndia Water Portal
Presentation at the Seminar on Packaged Water Industry in India which was organised by Confederation of Indian Industry (CII) on 30th June 2009.
To know more click on the link http://indiawaterportal.org/post/6790
We thank CII and the presenters for giving us permission to make these presentations available online.
Water purification involves large-scale and small-scale processes. Large-scale purification provides safe drinking water to the public and involves storage, filtration, and disinfection. Storage allows impurities to settle and bacteria to die off over 10-14 days. Filtration removes 98-99% of bacteria using slow sand filters containing a biological layer or rapid sand filters using coagulation, flocculation, sedimentation, and filtration. Disinfection with chlorine kills remaining pathogens, producing clean water for public distribution.
The document discusses methods of water purification on both large and small scales. On a large scale, purification involves storage, filtration using slow sand or rapid sand filters, and disinfection through boiling, chemicals like bleaching powder and chlorine, or filtration. On a small scale, common methods are boiling, sunlight exposure, and chlorination using household bleach. In Pokhara, the main method used by the water corporation is chemical treatment using bleaching powder at the water supply centers.
This document provides information about a public health engineering course taught by Ms. A. S. Dungarwal. The course covers various topics related to water purification including clariflocculation, sedimentation, filtration, and advanced water treatment methods. Specific techniques discussed include screening, aeration, coagulation aided sedimentation, slow sand filtration, rapid sand filtration, and pressure filtration. Process details and comparisons of different filtration methods are provided.
WATER TREATMENT TECHNOLOGY, Power Point PresentationShyamal Chowdhury
This document discusses technologies for mitigating arsenic and toxic minerals in water, as well as for surface water purification. It notes the scarcity of safe drinking water in rural areas of developing countries like Bangladesh, where groundwater is often contaminated with arsenic and surface water contains harmful bacteria. The document describes a patented filtering compound that can efficiently absorb arsenic and other toxic minerals from water, reducing arsenic levels well below permissible limits. It also discusses developing inexpensive test kits and a regeneration process to extend the life of the filtering medium. The goal is to provide cost-effective water purification projects to at-risk rural communities.
The document discusses various methods for water purification on both large and small scales. It describes the multi-stage process of water treatment including storage, filtration through slow sand filters, and disinfection through chlorination or other methods. Key aspects of slow sand filtration are explained such as the vital biological layer and filtration rates. Advantages of slow sand filtration include high quality water output and simple design and operation.
Effluent Treatment Plant, Reverse Osmosis System, Sewage Treatment Plant, Water Softening Plant, Swimming Pool Filter
We Netsol Water Solutions Private Limited are one of the leading and reliable manufacturer, supplier and exporter of a wide range of best quality Water Treatment Solutions. The offered range has been availed to the customers at the most comprehensive and market leading price range. We have manufactured this range from the usage of best quality raw material procured from reliable vending sources. In our extensive range we are availing products such as RO Plant, Effluent Treatment Plant, Air Pollution Control System, Water Treatment Plant WTP Manufacturer, Swimming Pool Filter, Swimming Pool Builder and much more.
Our expert professionals have fabricated this range in complete compliance with the industrial standards. We have also installed and made use of highly advanced technicalities and machines for the making of these machines and components. Offering complete purification of water, the systems are available for various processes be it industrial or domestic. At our infrastructure we have installed the best of facilities. We assure complete quality from our side as we put up our products to stringent quality testing.
This document discusses water pollution, purification, and disinfection. It outlines various causes and sources of water pollution including sewage, industrial waste, and agricultural runoff. It then describes common waterborne diseases and laws governing water pollution. The document provides details on large and small-scale water purification methods including storage, filtration using slow sand filters and rapid sand filters, and disinfection using chlorination. It concludes with discussing other disinfection methods like ozonation and UV light.
This is a lecture on household water treatment methods and techniques. These techniques are valuable for point-of-use treatment in emergency situations or where no elaborate systems exist.
The document discusses various types of water treatment equipment and processes from Sichuan Shanshui Technology Co., Ltd. It defines terms like original water, softened water, pure water, and ultrapure water. It describes technologies for softening water using sodium ion exchangers, producing pure water using pretreatment and membrane filtration, and producing ultrapure water using pretreatment, RO, and EDI. It provides information on conventional filters, integrated water purifiers, disc filters, microfiltration, ultrafiltration, nanofiltration, and RO systems. It includes photos and discusses the inflow and effluent water quality standards for different treatment equipment.
Water purification methods include sedimentation, filtration, aeration, chlorination, distillation, and reverse osmosis. Sedimentation involves allowing impurities to settle in tanks, and filtration passes water through layers of sand, gravel, and other materials. Aeration uses pressurized air to kill bacteria, and chlorination adds chemicals to kill remaining microbes. Distillation heats water to vapor and then cools the vapor to liquid, leaving impurities behind. Reverse osmosis uses a semipermeable membrane to retain solutes on one side while allowing solvent like water to pass through.
This document provides information on water purification methods at different scales. On a large scale, water is purified through storage, sedimentation, filtration (rapid sand and slow sand), and disinfection (usually chlorination). On a medium scale, adding bleach or chlorinated lime is common. On a small scale, boiling, distillation, and adding chemicals like bleach or iodine can purify water. The document also discusses rapid sand filtration versus slow sand filtration and different water quality testing standards.
Water purification without electricity can be achieved through various physical and biological processes. Untreated water sources like rivers and reservoirs require sedimentation to allow dirt and debris to settle. The water then passes through a multi-layer filter of gravel, pebbles, sand and charcoal. Each layer removes different impurities. Charcoal filtration is effective at removing toxins and odors without chemicals. It produces healthy, safe drinking water in an affordable way suitable for off-grid areas.
This document discusses various methods for purifying water, including natural and artificial methods. It focuses on large-scale water purification processes. The key steps discussed are storage, filtration (slow sand and rapid sand), and disinfection using chlorine. Storage allows sedimentation and improves water quality over time. Slow sand filtration uses a biological film for high-quality filtration. Rapid sand filtration can handle raw water directly using coagulation, flocculation, sedimentation, and mechanical filtration followed by chlorination for disinfection.
This document summarizes various water purification methods used in pharmaceutical applications. It discusses different types and grades of water including drinking water, purified water, highly purified water, and water for injection. Key water purification techniques described include deionization, reverse osmosis, distillation, ultrafiltration, and combinations thereof. Advanced processes like microfiltration and double pass reverse osmosis systems are also outlined to produce higher purity water suitable for various future uses.
This document discusses various water treatment processes used in the pharmaceutical industry, including reverse osmosis (RO), demineralization (DM), and ultrafiltration. RO uses semipermeable membranes to remove dissolved solids, organic pyrogens, and microbes from water. DM removes mineral salts using ion exchange resins. Ultrafiltration uses membranes to retain suspended solids and high molecular weight substances while allowing water and low molecular solutes to pass through. The document also describes different types of treated pharmaceutical water like water for injection and their uses.
Water Purification Plant ManufacturersManish Yadav
The document summarizes water purification techniques used in water purification plants. It discusses the goals of removing undesirable chemicals, biological contaminants, and particles to produce clean water. Filtration methods including coarse, micro, and ultra filtration are explained to remove bacteria, viruses, and other impurities down to 1 micron sizes. Various water purification plants and manufacturers are mentioned.
1. The document discusses various aspects of water including its importance for health, definitions of safe water, water requirements, uses, sources, and purification.
2. Key sources of water discussed are rain, surface water sources like reservoirs and rivers, and groundwater sources like wells and springs. Surface water often requires treatment due to potential for contamination while groundwater is generally safer.
3. Water purification methods on a large scale discussed are storage, filtration using slow sand or rapid filters, and disinfection. Proper construction of sanitary wells and tanks can improve small scale water sources.
A simple presentation on water purification using microorganisms
here the water purification process activated sludge is discussed and trickling filters usage and what is use of water purification and use of microorganisms
This document discusses various methods for purifying water at small and large scales. At a small scale, domestic filters like cloth, ceramic, and ultraviolet filters can be used. Boiling is also effective but uses a lot of fuel. Chemical processes involve using bleach, chlorine solutions, chlorine tablets, alum, or iodine to purify water. At a large scale, purification methods include aeration, oxidation, filtration through soil layers, and evaporation.
Water purification is a 14-step process that begins with water collection and ends with independent quality testing. The steps include activated carbon filtration, water softening, reverse osmosis for demineralization, remineralization by adding selected minerals, micron filtering, ultraviolet and ozone disinfection, bottling control, packaging quality assurance, line sanitation, and multiple levels of quality control and testing to produce safe drinking water.
The document discusses various methods for purifying water on large and small scales. For large scale purification, it describes the three main steps of storage, filtration, and disinfection. Storage allows impurities to settle through gravity. Filtration removes 98-99% of bacteria and impurities through slow sand or rapid sand filters. Disinfection with chlorine or other chemicals kills remaining pathogens. For small scale purification, it recommends boiling, chemical disinfection, filtration using ceramic filters, ultraviolet irradiation, and reverse osmosis systems to purify water for household use.
Surface water treatment involves several steps: (1) intake of water from rivers through screens and grit chambers, (2) addition of chemicals like chlorine, lime, and alum through rapid mixing, (3) coagulation through slow mixing to form and densify flocs, (4) settling of flocs in tanks, (5) filtration through granular materials to remove particles, and (6) disinfection through chlorination to remove pathogens before distribution. Proper treatment is essential to make surface water potable and safe for human consumption.
This document summarizes the reverse osmosis (RO) water purification process used by TranscomBeverages Limited. It describes how raw water is treated through a multi-step process including sand filtration, activated carbon filtration, microfiltration, UV light, and RO membranes to remove impurities before being stored. Chemical additions like acids, caustics, and antiscalants are used to improve the RO system performance. Regular cleaning and maintenance is required to ensure the various treatment components like sand filters, activated carbon, and RO membranes continue working effectively. Water quality testing confirms the purified water meets standards for drinking water and beverage production.
The document discusses the water treatment process, which involves removing pollutants from raw water through screening and filtering to produce safe water for human use. The screening process removes wood chips, leaves, and other floating impurities. This creates a more compact suspended material and allows the water to flow into chambers where settled material collects on the bottom. Screening restricts solid waste from entering the water treatment plant and prevents equipment damage while preparing the water for subsequent treatment steps.
The document outlines the various steps involved in purifying an enzyme, including:
1) Removal of nucleic acids and cell debris through centrifugation, filtration, or precipitation with chemicals like protamine sulfate or streptomycin.
2) Preliminary purification steps to remove small molecules and unwanted contaminants.
3) Separation based on solubility differences, often using precipitation mediated by changes in salt concentration, pH, or temperature.
4) Final purification techniques like chromatography, adsorption, or concentration to achieve a highly purified enzyme.
Water treatment describes processes used to make water acceptable for various uses like drinking, industrial processes, and medical uses. The goal is to remove or reduce contaminants to fit the intended use. Processes can include physical separation methods like settling and filtration, chemical processes like disinfection and coagulation, and biological processes for wastewater. Factors in selecting treatment processes include the raw water quality, intended use, desired water quality, system size and cost. Common water treatment processes are pretreatment, coagulation, rapid mixing, flocculation, sedimentation, filtration, disinfection, and softening.
This document discusses various methods of water purification and identifies the most appropriate methods based on different situations. It identifies boiling, filtering, distilling, and chlorination as common purification methods. Distilling is considered the most effective as it removes the widest range of contaminants, but has limitations as it removes minerals. The appropriate method depends on factors like local water quality, cost, and performance of the system. Groups will present creative ways to purify water and discuss limitations of distilling.
The western blot technique uses gel electrophoresis to separate proteins in a tissue homogenate or extract by molecular weight. The separated proteins on the gel are then transferred to a membrane (usually nitrocellulose or PVDF) which is then incubated with an antibody specific for a target protein. The protein of interest can be visualised using conjugated secondary antibodies and detection reagents.
Do you have a technical question? Get in touch: info@stjohnslabs.com
Protocol series - http://www.stjohnslabs.com/services/video-protocol-series
This document discusses water pollution, purification, and disinfection. It outlines various causes and sources of water pollution including sewage, industrial waste, and agricultural runoff. It then describes common waterborne diseases and laws governing water pollution. The document provides details on large and small-scale water purification methods including storage, filtration using slow sand filters and rapid sand filters, and disinfection using chlorination. It concludes with discussing other disinfection methods like ozonation and UV light.
This is a lecture on household water treatment methods and techniques. These techniques are valuable for point-of-use treatment in emergency situations or where no elaborate systems exist.
The document discusses various types of water treatment equipment and processes from Sichuan Shanshui Technology Co., Ltd. It defines terms like original water, softened water, pure water, and ultrapure water. It describes technologies for softening water using sodium ion exchangers, producing pure water using pretreatment and membrane filtration, and producing ultrapure water using pretreatment, RO, and EDI. It provides information on conventional filters, integrated water purifiers, disc filters, microfiltration, ultrafiltration, nanofiltration, and RO systems. It includes photos and discusses the inflow and effluent water quality standards for different treatment equipment.
Water purification methods include sedimentation, filtration, aeration, chlorination, distillation, and reverse osmosis. Sedimentation involves allowing impurities to settle in tanks, and filtration passes water through layers of sand, gravel, and other materials. Aeration uses pressurized air to kill bacteria, and chlorination adds chemicals to kill remaining microbes. Distillation heats water to vapor and then cools the vapor to liquid, leaving impurities behind. Reverse osmosis uses a semipermeable membrane to retain solutes on one side while allowing solvent like water to pass through.
This document provides information on water purification methods at different scales. On a large scale, water is purified through storage, sedimentation, filtration (rapid sand and slow sand), and disinfection (usually chlorination). On a medium scale, adding bleach or chlorinated lime is common. On a small scale, boiling, distillation, and adding chemicals like bleach or iodine can purify water. The document also discusses rapid sand filtration versus slow sand filtration and different water quality testing standards.
Water purification without electricity can be achieved through various physical and biological processes. Untreated water sources like rivers and reservoirs require sedimentation to allow dirt and debris to settle. The water then passes through a multi-layer filter of gravel, pebbles, sand and charcoal. Each layer removes different impurities. Charcoal filtration is effective at removing toxins and odors without chemicals. It produces healthy, safe drinking water in an affordable way suitable for off-grid areas.
This document discusses various methods for purifying water, including natural and artificial methods. It focuses on large-scale water purification processes. The key steps discussed are storage, filtration (slow sand and rapid sand), and disinfection using chlorine. Storage allows sedimentation and improves water quality over time. Slow sand filtration uses a biological film for high-quality filtration. Rapid sand filtration can handle raw water directly using coagulation, flocculation, sedimentation, and mechanical filtration followed by chlorination for disinfection.
This document summarizes various water purification methods used in pharmaceutical applications. It discusses different types and grades of water including drinking water, purified water, highly purified water, and water for injection. Key water purification techniques described include deionization, reverse osmosis, distillation, ultrafiltration, and combinations thereof. Advanced processes like microfiltration and double pass reverse osmosis systems are also outlined to produce higher purity water suitable for various future uses.
This document discusses various water treatment processes used in the pharmaceutical industry, including reverse osmosis (RO), demineralization (DM), and ultrafiltration. RO uses semipermeable membranes to remove dissolved solids, organic pyrogens, and microbes from water. DM removes mineral salts using ion exchange resins. Ultrafiltration uses membranes to retain suspended solids and high molecular weight substances while allowing water and low molecular solutes to pass through. The document also describes different types of treated pharmaceutical water like water for injection and their uses.
Water Purification Plant ManufacturersManish Yadav
The document summarizes water purification techniques used in water purification plants. It discusses the goals of removing undesirable chemicals, biological contaminants, and particles to produce clean water. Filtration methods including coarse, micro, and ultra filtration are explained to remove bacteria, viruses, and other impurities down to 1 micron sizes. Various water purification plants and manufacturers are mentioned.
1. The document discusses various aspects of water including its importance for health, definitions of safe water, water requirements, uses, sources, and purification.
2. Key sources of water discussed are rain, surface water sources like reservoirs and rivers, and groundwater sources like wells and springs. Surface water often requires treatment due to potential for contamination while groundwater is generally safer.
3. Water purification methods on a large scale discussed are storage, filtration using slow sand or rapid filters, and disinfection. Proper construction of sanitary wells and tanks can improve small scale water sources.
A simple presentation on water purification using microorganisms
here the water purification process activated sludge is discussed and trickling filters usage and what is use of water purification and use of microorganisms
This document discusses various methods for purifying water at small and large scales. At a small scale, domestic filters like cloth, ceramic, and ultraviolet filters can be used. Boiling is also effective but uses a lot of fuel. Chemical processes involve using bleach, chlorine solutions, chlorine tablets, alum, or iodine to purify water. At a large scale, purification methods include aeration, oxidation, filtration through soil layers, and evaporation.
Water purification is a 14-step process that begins with water collection and ends with independent quality testing. The steps include activated carbon filtration, water softening, reverse osmosis for demineralization, remineralization by adding selected minerals, micron filtering, ultraviolet and ozone disinfection, bottling control, packaging quality assurance, line sanitation, and multiple levels of quality control and testing to produce safe drinking water.
The document discusses various methods for purifying water on large and small scales. For large scale purification, it describes the three main steps of storage, filtration, and disinfection. Storage allows impurities to settle through gravity. Filtration removes 98-99% of bacteria and impurities through slow sand or rapid sand filters. Disinfection with chlorine or other chemicals kills remaining pathogens. For small scale purification, it recommends boiling, chemical disinfection, filtration using ceramic filters, ultraviolet irradiation, and reverse osmosis systems to purify water for household use.
Surface water treatment involves several steps: (1) intake of water from rivers through screens and grit chambers, (2) addition of chemicals like chlorine, lime, and alum through rapid mixing, (3) coagulation through slow mixing to form and densify flocs, (4) settling of flocs in tanks, (5) filtration through granular materials to remove particles, and (6) disinfection through chlorination to remove pathogens before distribution. Proper treatment is essential to make surface water potable and safe for human consumption.
This document summarizes the reverse osmosis (RO) water purification process used by TranscomBeverages Limited. It describes how raw water is treated through a multi-step process including sand filtration, activated carbon filtration, microfiltration, UV light, and RO membranes to remove impurities before being stored. Chemical additions like acids, caustics, and antiscalants are used to improve the RO system performance. Regular cleaning and maintenance is required to ensure the various treatment components like sand filters, activated carbon, and RO membranes continue working effectively. Water quality testing confirms the purified water meets standards for drinking water and beverage production.
The document discusses the water treatment process, which involves removing pollutants from raw water through screening and filtering to produce safe water for human use. The screening process removes wood chips, leaves, and other floating impurities. This creates a more compact suspended material and allows the water to flow into chambers where settled material collects on the bottom. Screening restricts solid waste from entering the water treatment plant and prevents equipment damage while preparing the water for subsequent treatment steps.
The document outlines the various steps involved in purifying an enzyme, including:
1) Removal of nucleic acids and cell debris through centrifugation, filtration, or precipitation with chemicals like protamine sulfate or streptomycin.
2) Preliminary purification steps to remove small molecules and unwanted contaminants.
3) Separation based on solubility differences, often using precipitation mediated by changes in salt concentration, pH, or temperature.
4) Final purification techniques like chromatography, adsorption, or concentration to achieve a highly purified enzyme.
Water treatment describes processes used to make water acceptable for various uses like drinking, industrial processes, and medical uses. The goal is to remove or reduce contaminants to fit the intended use. Processes can include physical separation methods like settling and filtration, chemical processes like disinfection and coagulation, and biological processes for wastewater. Factors in selecting treatment processes include the raw water quality, intended use, desired water quality, system size and cost. Common water treatment processes are pretreatment, coagulation, rapid mixing, flocculation, sedimentation, filtration, disinfection, and softening.
This document discusses various methods of water purification and identifies the most appropriate methods based on different situations. It identifies boiling, filtering, distilling, and chlorination as common purification methods. Distilling is considered the most effective as it removes the widest range of contaminants, but has limitations as it removes minerals. The appropriate method depends on factors like local water quality, cost, and performance of the system. Groups will present creative ways to purify water and discuss limitations of distilling.
The western blot technique uses gel electrophoresis to separate proteins in a tissue homogenate or extract by molecular weight. The separated proteins on the gel are then transferred to a membrane (usually nitrocellulose or PVDF) which is then incubated with an antibody specific for a target protein. The protein of interest can be visualised using conjugated secondary antibodies and detection reagents.
Do you have a technical question? Get in touch: info@stjohnslabs.com
Protocol series - http://www.stjohnslabs.com/services/video-protocol-series
This document discusses the principles and applications of enzymology. It begins with definitions of enzymes and their basic components and properties. It then covers topics like enzyme structure, kinetics, thermodynamics, techniques for studying enzymes, classification systems, and the specificity and mechanisms of enzyme catalysis. The document also examines controls on enzyme action, as well as applications like isolation and purification of enzymes. It concludes by discussing applications of enzymology in medicine and biotechnology, including enzyme engineering, immobilization, use in biosensors, and as part of bioelectrochemical cells.
The Significance and Practical Applications of MICROBIOLOGY in Relation to BI...Regie Panganiban
Microorganisms play important roles in addressing climate change, pollution, and pandemics. They help remove carbon from the air, degrade air and water pollutants through biofilm formation, and assist in vaccine development. Microbes also critically impact human health and survival through roles in the digestive system, on the skin, and in maintaining a diverse gut microbiome. While microbiology provides benefits, its principles and technologies could be exploited to cause harm if water treatment is inadequate or pathogenic microbes are released.
Polymerase Chain Reaction (PCR) allows scientists to make millions of copies of a specific DNA sequence starting with only a small sample. PCR involves repeated cycles of heating and cooling DNA to separate the strands and allow new strands to be synthesized using DNA polymerase. Kary Mullis invented PCR in 1983 while working at Cetus Corporation, and it has since become a fundamental technique for amplifying DNA sequences, enabling applications like DNA fingerprinting using very small forensic samples.
The document discusses aquatic microbiology and water microbiology. Aquatic microbiology is the study of microorganisms in aquatic environments like lakes, rivers, and oceans, while water microbiology relates specifically to microorganisms in drinking water. The scope of aquatic microbiology is wide and includes plankton, benthic organisms, microbial mats, and biofilms found across various aquatic habitats.
Meta-genomics is the application of modern genomics techniques to the study of communities of microbial organisms directly in their natural environments, bypassing the need for isolation and lab cultivation of individual species”
The document discusses the Polymerase Chain Reaction (PCR) technique. It was invented by Kary Mullis in 1985. PCR allows for targeted amplification of specific DNA sequences. It works by using DNA polymerase to make copies of a targeted region of DNA defined by primer sequences. Through repeated heating and cooling cycles, millions of copies of the target DNA can be produced, allowing it to be analyzed. Taq polymerase, an enzyme from thermophilic bacteria, is used as it is heat-stable and allows the reaction to take place.
This document summarizes microbiology topics related to food and water. It discusses how gastrointestinal infections are usually transmitted through contaminated food or water. It describes various sources of food contamination including soil, water, food utensils, food handlers, and animals. Common foodborne pathogens are mentioned. Methods for controlling bacteria in food to prevent spoilage and disease transmission are outlined. Microbiology issues pertaining to water are also summarized, including waterborne diseases and methods for water sanitation.
gives a very brief info about western blotting procedures, attractive slides, with creative animation effects, i hope this ppt of mine works good for seminar and for educational purposes.
Microbiology of sewage and sewage treatmentFatimah Tahir
Sewage or wastewater contains water and solids separated from various sources like domestic, industrial, and stormwater runoff. It contains pathogens and organic material. Treatment aims to remove solids, reduce biochemical oxygen demand (BOD), and eliminate pathogens through primary, secondary, and sometimes tertiary processes. Primary treatment removes 50% of solids and 25% of BOD through settling. Secondary treatment further reduces BOD through microbial degradation. Sludge from primary treatment is anaerobically digested by microbes to produce methane and reduce pathogens before disposal or reuse. Disinfection with chemicals or UV light is sometimes applied before releasing the treated water.
Immunoblotting assays such as Western blotting allow detection of specific proteins in complex mixtures by separating proteins by gel electrophoresis, transferring them to a membrane, and using antibodies to identify target proteins on the membrane. The presentation provides details on the key steps of tissue preparation, gel electrophoresis, protein transfer, blocking, detection using labeled antibodies, analysis, and applications of immunoblotting assays like Western blotting.
The document discusses microbiology related to food and water. It describes how food and water can become contaminated with microorganisms from various sources like soil, food handlers, and animal hides. This contamination can lead to food spoilage, foodborne illness, and waterborne diseases. The document outlines various bacteria, viruses, and parasites that can cause diseases when ingested through contaminated food or water. It also discusses methods used to study and control microorganisms in food and water to prevent diseases.
Purification anf disinfection of watertJasmine John
Water purification involves removing undesirable chemicals, biological contaminants, and gases from contaminated water to produce water suitable for drinking or other purposes. Key steps in water purification treatment include physical processes like filtration and sedimentation, chemical processes like flocculation and chlorination, and biological processes like slow sand filters. Standards for drinking water quality are set by governments and international organizations and treatment methods vary depending on the source and quality of the water.
The document discusses various microorganisms found in water and their roles. It describes that water is essential for life and acts as a medium for cellular reactions. It discusses different types of water bodies and habitats that contain diverse microbes like bacteria, viruses, protozoa, fungi, algae, and helminths. Many of these microorganisms can cause water-borne diseases if the water is contaminated. Proper treatment is needed to ensure water is safe for drinking and other uses. Maintaining good hygiene is important for preventing water-washed and water-related illnesses.
This document discusses different blotting techniques used to detect proteins, DNA, and RNA. It focuses on the Western blot technique used to detect specific proteins. The Western blot process involves tissue preparation, gel electrophoresis to separate proteins, transferring proteins to a membrane, blocking the membrane, primary and secondary antibody detection to reveal targeted proteins, and analysis. Detection can be done through colorimetric, chemiluminescent, or radioactive methods. The Western blot is commonly used as a confirmatory test for HIV and hepatitis infections.
El Western blot es una técnica que permite detectar proteínas específicas en una muestra mediante la separación de las proteínas por electroforesis en un gel y su posterior transferencia a una membrana. La membrana se incuba con anticuerpos primarios y secundarios para identificar las proteínas de interés, y las bandas se detectan comúnmente por quimioluminiscencia o fluorescencia.
Bs water-treatment-presentation-1-1 finalsDaphne Tan
Water treatment is crucial for safe consumption and usage. It removes contaminants like chlorine, fluoride, parasites and dioxins that can be hazardous to health. For haemodialysis patients who use large volumes of water, treatment is essential to avoid health complications. Reverse osmosis is commonly used as it removes bacteria, endotoxins and dissolved solids. Strict water quality monitoring and disinfection is needed, as contaminated water could be life threatening for haemodialysis patients. Proper equipment, storage and process design are important to ensure safe, effective water treatment.
Bs water-treatment-presentation-1-1 finalsDaphne Tan
Water treatment is important for haemodialysis patients who are exposed to large volumes of water directly through their bloodstream. Reverse osmosis (RO) is commonly used to treat water for haemodialysis as it removes contaminants, bacteria and endotoxins. Proper design, monitoring and maintenance of the RO system is required. Storage tanks must be designed to prevent bacterial growth and reject water can be recycled to reduce wastage. Regular testing is needed to ensure water quality meets Association for the Advancement of Medical Instrumentation standards to protect patient safety.
Dr. Prem Mohan Jha discussed the need for pure water in dialysis and the water purification system used to provide it. Two main water sources are surface and groundwater, both of which can contain various contaminants harmful for dialysis patients. The water purification system uses multiple steps including carbon filtration, softening, reverse osmosis, and sometimes deionization to remove contaminants. Strict water quality standards must be followed and the various components of the system such as softeners and filters require regular monitoring, maintenance and disinfection to ensure water purity and prevent bacterial growth.
The document describes HaloPure's point-of-use water treatment products that use bromine-based biocide technology. The technology kills bacteria and viruses in water while allowing safe storage. Products include pitchers, cartridges for dispensers and filters, and inserts for ceramic candles. They provide treated water for homes, offices, and travel. The technology is registered with the EPA and tested to meet international standards for water treatment performance and safety.
Canadian High Purity Water Inc specializes in designing, supplying, installing, and servicing high purity water treatment systems for healthcare, pharmaceutical, laboratory, industrial, and commercial sectors. They distribute Purite water purification products and partner with top manufacturers to provide high quality equipment and outstanding service. Their customized systems can include pretreatment, reverse osmosis, storage tanks, distribution pumps, and more to meet clients' specific water needs.
Water treatment and quality control of dialysate.Vishal Golay
The document discusses water treatment and quality control for dialysate used in hemodialysis. It describes the various components of a water treatment system, including backflow preventers, temperature blending valves, filters, softeners, carbon tanks, reverse osmosis membranes, and ultraviolet irradiation. The water treatment system aims to remove contaminants and achieve a composition similar to extracellular fluid for the dialysate. Proper functioning and monitoring of the water treatment system is important for patient safety and preventing toxic effects of contaminants.
This document summarizes various water purification methods used in pharmaceutical applications. It discusses different types and grades of water including drinking water, purified water, highly purified water, and water for injection. Key water purification techniques described include deionization, reverse osmosis, distillation, ultrafiltration, and combinations thereof. Advanced processes like microfiltration and double pass reverse osmosis systems are also outlined to produce higher purity water suitable for various future uses.
Water system , IMPORTANCE OF WATER & Water Treatment ICHAPPS
Water system, IMPORTANCE OF WATER.Water is widely used as a raw material, ingredient and solvent in the processing formulation and in the manufacture of pharmaceutical products, Active pharmaceutical ingredients and in intermediates.Water is widely used as a raw material, ingredient and solvent in the processing formulation and in the manufacture of pharmaceutical products, Active pharmaceutical ingredients and in intermediates.
HaloPure helps address the need for safe, affordable drinking water. HaloPure technology destroys bacteria, viruses, odors and aftertaste, too. EPA approved. HaloPure solutions are versatile and can be applied to a variety of point-of-use devices, both gravity and pressure.
Water is an inorganic, transparent, tasteless, odorless, and nearly colorless chemical substance, which is the main constituent of Earth's hydrosphere and the fluids of all known living organisms. It is vital for all known forms of life, even though it provides no calories or organic nutrients.
Density: 997 kg/m³
Boiling point: 100 °C
Formula: H2O
Melting point: 0 °C
Molar mass: 18.01528 g/mol
Water travels throughout your body carrying nutrients, oxygen, and wastes to and from your cells and organs. Water keeps your body cool as part of your body's temperature regulating system. Water cushions your joints, and protects your tissues and organs from shock and damage.
Some waterborne pathogenic microorganisms spread by water can cause severe, life-threatening diseases. Examples are typhoid fever, cholera and Hepatitis A or E. Other microorganisms induce less dangerous diseases.
Water is one of the major commodities used by the pharmaceutical industry. It is widely used as a raw material, ingredient, and solvent in the processing, formulation, and manufacture of pharmaceutical products, active pharmaceutical ingredients (APIs) and intermediates, and analytical reagents.
Deionized Water System LDIN-A10 is smallest and most compact lab water system from tap to ultrapure water, integrating pretreatment, RO, DI, UV, UF and terminal filter into one.
Laboratory water purifiers are crucial tools in scientific research, analysis, and experimentation. These systems are designed to remove impurities, contaminants, and ions from tap water or other water sources, providing researchers with water that meets stringent quality standards. They help ensure the reliability and accuracy of laboratory results while also contributing to the longevity and performance of sensitive laboratory equipment. It is widely used in HPLC, DNA sequencing, TOC testing, Ion Chromatography in the fields of general laboratories, molecular biology, life science and analytical applications etc.
The document describes ELGA's PURELAB flex line of water purification systems. It provides specifications for 5 models - PURELAB flex 1 through 4, which can purify water to different standards depending on daily volume and source water quality. The systems offer flexible dispensing options and monitoring of water purity. Key features include intuitive design, quick sanitization, global support, and certification of quality and safety.
The document provides information about the Pureit Marvela RO water purifier. It has 5 purification stages including sedimentation filters, carbon filter, and reverse osmosis. It removes total dissolved solids (TDS) up to 2000 ppm from water. Key features include a 9-liter storage tank, RO purity lock system, advance alert system, and voltage fluctuation guard. It provides purified water through multi-stage filtration and reverse osmosis membrane filtration.
This document discusses the need for high-quality water in pharmaceutical manufacturing. It notes that water is used directly and indirectly in products and cleaning. It then outlines the goals of understanding water quality systems, sources, and validation/qualification requirements. Various water treatment techniques are explained including filtration, softening, reverse osomosis and more. Validation involves proving the engineering design, operating procedures and maintenance plans. The presentation covers installation qualification, operational qualification, and performance qualification testing over multiple phases to verify long-term control of water systems.
Water is the most common reagent used in the laboratory, and while water quality can often be overlooked, the grade of water being used in an application is critical. Minute traces of salts or biological contaminants can result in unfortunate consequences when culturing cells or performing analytical measurements of biological macromolecules.
Bencor Technology has developed the Aqua Reactor system to purify contaminated wastewater without chemicals. The system uses several existing technologies together in a new way, including a sedimentation vessel, Aqua Reactor vessel, media filters, and reverse osmosis. The Aqua Reactor is a pre-treatment step that converts dissolved solids to a suspended form for easier removal downstream. This comprehensive system can purify wastewater from various industrial sources like pharmaceuticals to drinking water standards without residual waste.
This document discusses the importance of high purity water for HPLC. It outlines the different grades of lab water and specifications for HPLC-grade water, including a resistivity of at least 18 MΩ-cm and total organic carbon content below 50 ppb. Poor quality water can cause issues like ghost peaks and altered stationary phase selectivity. Water should be packaged in amber glass bottles sealed with nitrogen and used within 24 hours after opening. Both resistivity and TOC must be monitored to ensure water purity rather than just measuring resistivity.
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The document discusses point-of-use glassware washers, including their specifications and features that are important for laboratory users. It compares manual cleaning to machine washing and outlines factors to consider when selecting a washer such as glassware type, soil levels, drying requirements, and optional accessories. Point-of-use glassware washers with hot water, pure water rinses, and forced air drying are recommended for reproducible cleaning of laboratory glassware.
- The document discusses Paramount® Ductless Enclosures, which are self-contained work stations that use carbon filters to protect operators from harmful vapors without requiring ductwork. They utilize energy-efficient motors and patented containment features.
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Purifier Logic Class II Biological Safety Cabinets PresentationLabconco Corporation
This document provides information about the Purifier® Logic® Class II Biological Safety Cabinet. It includes:
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Provides general information on Labconco's Precise Basic, Controlled Atmosphere and HEPA-Filtered Glove Boxes and XPert Weigh Box Glove Boxes. Answers basic questions and discusses the features and benefits of Precise Glove Boxes. Also addresses accessories available and market applications for Precise Glove Boxes.
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Computer in pharmaceutical research and development-Mpharm(Pharmaceutics)MuskanShingari
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Debunking Nutrition Myths: Separating Fact from Fiction"AlexandraDiaz101
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PGx Analysis in VarSeq: A User’s PerspectiveGolden Helix
Since our release of the PGx capabilities in VarSeq, we’ve had a few months to gather some insights from various use cases. Some users approach PGx workflows by means of array genotyping or what seems to be a growing trend of adding the star allele calling to the existing NGS pipeline for whole genome data. Luckily, both approaches are supported with the VarSeq software platform. The genotyping method being used will also dictate what the scope of the tertiary analysis will be. For example, are your PGx reports a standalone pipeline or would your lab’s goal be to handle a dual-purpose workflow and report on PGx + Diagnostic findings.
The purpose of this webcast is to:
Discuss and demonstrate the approaches with array and NGS genotyping methods for star allele calling to prep for downstream analysis.
Following genotyping, explore alternative tertiary workflow concepts in VarSeq to handle PGx reporting.
Moreover, we will include insights users will need to consider when validating their PGx workflow for all possible star alleles and options you have for automating your PGx analysis for large number of samples. Please join us for a session dedicated to the application of star allele genotyping and subsequent PGx workflows in our VarSeq software.
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Breast cancer: Post menopausal endocrine therapyDr. Sumit KUMAR
Breast cancer in postmenopausal women with hormone receptor-positive (HR+) status is a common and complex condition that necessitates a multifaceted approach to management. HR+ breast cancer means that the cancer cells grow in response to hormones such as estrogen and progesterone. This subtype is prevalent among postmenopausal women and typically exhibits a more indolent course compared to other forms of breast cancer, which allows for a variety of treatment options.
Diagnosis and Staging
The diagnosis of HR+ breast cancer begins with clinical evaluation, imaging, and biopsy. Imaging modalities such as mammography, ultrasound, and MRI help in assessing the extent of the disease. Histopathological examination and immunohistochemical staining of the biopsy sample confirm the diagnosis and hormone receptor status by identifying the presence of estrogen receptors (ER) and progesterone receptors (PR) on the tumor cells.
Staging involves determining the size of the tumor (T), the involvement of regional lymph nodes (N), and the presence of distant metastasis (M). The American Joint Committee on Cancer (AJCC) staging system is commonly used. Accurate staging is critical as it guides treatment decisions.
Treatment Options
Endocrine Therapy
Endocrine therapy is the cornerstone of treatment for HR+ breast cancer in postmenopausal women. The primary goal is to reduce the levels of estrogen or block its effects on cancer cells. Commonly used agents include:
Selective Estrogen Receptor Modulators (SERMs): Tamoxifen is a SERM that binds to estrogen receptors, blocking estrogen from stimulating breast cancer cells. It is effective but may have side effects such as increased risk of endometrial cancer and thromboembolic events.
Aromatase Inhibitors (AIs): These drugs, including anastrozole, letrozole, and exemestane, lower estrogen levels by inhibiting the aromatase enzyme, which converts androgens to estrogen in peripheral tissues. AIs are generally preferred in postmenopausal women due to their efficacy and safety profile compared to tamoxifen.
Selective Estrogen Receptor Downregulators (SERDs): Fulvestrant is a SERD that degrades estrogen receptors and is used in cases where resistance to other endocrine therapies develops.
Combination Therapies
Combining endocrine therapy with other treatments enhances efficacy. Examples include:
Endocrine Therapy with CDK4/6 Inhibitors: Palbociclib, ribociclib, and abemaciclib are CDK4/6 inhibitors that, when combined with endocrine therapy, significantly improve progression-free survival in advanced HR+ breast cancer.
Endocrine Therapy with mTOR Inhibitors: Everolimus, an mTOR inhibitor, can be added to endocrine therapy for patients who have developed resistance to aromatase inhibitors.
Chemotherapy
Chemotherapy is generally reserved for patients with high-risk features, such as large tumor size, high-grade histology, or extensive lymph node involvement. Regimens often include anthracyclines and taxanes.
2. COPYRIGHT NOTICE
The material included in this presentation is
copyright of Labconco Corporation.
Reproduction or use of the slides is not
permitted without express permission from
Labconco Corporation.
4. WaterPro® Water Purification Systems
Water Contaminants
Particulates include silt, plumbing pipe debris and
colloids.
Dissolved inorganics (solids and gases) includes
calcium and magnesium ions dissolved from rock
formations.
Dissolved organics may include pesticides,
herbicides, gasoline and decayed plant and animal
tissues.
Microorganisms include bacteria, protozoa and
algae
Pyrogens have a detrimental or lethal effect on
tissue cultures.
5. WaterPro® Water Purification Systems
Types of Water
Type I (NCCLS)
Purest water achievable for analytical work
Measured by electrical resistivity – lack of
ion activity…16-18 megohms
Uses:
HPLC, Ion Chromatography, Trace Metal
Analysis, Immunology, Cell Culture, SNA
studies
6. WaterPro® Water Purification Systems
Types of Water
Type II (NCCLS)
Test methods in which the presence of bacteria
can be tolerated
General reagents without preservatives,
microbiology systems
Test methods for which requirements leading to
the choice of Type I or Special Purpose waters do
not apply
Stains and dyes for histology, general reagents with
preservatives and microbiology systems (to be
sterilized)
7. WaterPro® Water Purification Systems
Types of Water
Type III (NCCLS):
Less pure than Type I, but with 90-99%
of contaminants removed
Type IV (NCCLS):
Similar to NCCLS Type III
Uses:
Glassware washing, media preparation,
feedwater for polishing to Type I quality
8. WaterPro® Water Purification Systems
WaterPro RO Station
WaterPro PS Polishing Station
General Chemistry
HPLC
UF
HPLC/UF Hybrid
9. WaterPro® Water Purification Systems
WaterPro Reverse Osmosis Stations
First level of laboratory water purification
Produce Type III/Type IV water, depending
on tap water quality at 1L per minute
Ideal for glassware rinsing and as feedwater
for Polishing Station
Alternative to central deionization or
distillation
Connects to Labconco Glassware Washers to
provide purified water
10. WaterPro® Water Purification Systems
WaterPro Reverse Osmosis Stations
Timed dispense for unattended operation
Large capacity white polypropylene bowls
require infrequent changes
Supplies pure water to a dispensing valve
or optional gun
Automatic flush valve extends RO
membrane life
Internal pressure gauge provides reading
from 0 to 160 psi of RO-purified water
11. WaterPro® Water Purification Systems
RO Purification
Technologies/Features:
Prefilter removes particulates larger than
five microns from the feedwater protecting
the reverse osmosis membrane.
Carbon Filter removes organics and
chlorine from the feedwater. Provides
protection for the reverse osmosis
membrane.
Reverse Osmosis Membrane is a thin film
composite membrane that removes up to
99% of inorganics, organics and colloids.
12. WaterPro® Water Purification Systems
WaterPro RO Accessories
Dispensing Gun
70 Liter Tank connects to the WaterPro RO/PS Mobile
WaterPro RO Station to provide Stand
additional storage capacity and means
to deliver RO-purified water from
three outlets to destinations such as a
polishing station and glassware
washer.
13. WaterPro® Water Purification Systems
WaterPro PS Polishing Stations
Produces Type I reagent grade water, 16-18.2
megohm resistivity
Ideal for analytical instruments, life science
applications
Plumbs to high quality tap water or pre-treated
water such as RO treated Type III/IV water
Highest level of laboratory water purification
14. WaterPro® Water Purification Systems
WaterPro PS Polishing Stations
Continuous/intermittent recirculation through
the polishing loop
Mounts on wall or bench with accessory stand
In-line pressure regulator
¼ hp motor and rotary vane recirculation pump
Dispensing valve
Dual wavelength ultraviolet reactor*
UF flush valve**
Water quality alert
*Life Science, Analytical Instrument and Hybrid models only
**Life Science and Hybrid models only
15. WaterPro® Water Purification Systems
WaterPro PS Polishing Stations.
Water quality alert
Built-in ultrafilter module*
Built-in dispensing center
TOC dump valve**
* Life Science and Hybrid models only
** Analytical Instrument and Hybrid models only
16. WaterPro® Water Purification Systems
Pistol Model Shown
General Chemistry Purification
Technologies/Features:
Carbon Filtration removes organics
and chlorine from the feedwater
Deionization – Three nuclear grade mixed
bed deionization cartridges remove
inorganic impurities
Continuous/Intermittent Recirculation
maintains water quality and inhibits
bacteria growth throughout the system
Carbon Deionization
Cartridge Cartridges
17. WaterPro® Water Purification Systems
Pistol Model Shown Ultraviolet Reactor HPLC Analytical Instrument
Purification Technologies/Features:
Carbon Filtration removes organics and
chlorine from the feedwater
Deionization – Two nuclear grade mixed
bed deionization cartridges remove
inorganic impurities
Organic Adsorption cartridge removes
trace organics
Ultraviolet Reactor – UV light with dual
wavelengths of 185 and 254 nm ensures
Carbon Deionization Organic
Cartridge Cartridges Adsorption
low TOC and bacterial levels
Cartridge
18. WaterPro® Water Purification Systems
Pistol Model Shown Ultraviolet Reactor
HPLC Analytical Instrument
Purification Technologies/Features:
TOC Dump Valve directs a small portion
of purified water to drain during
intermittent recirculation, to maintain low
TOC values
Continuous/Intermittent Recirculation
maintains water quality and inhibits
bacteria growth throughout the system
Optional Hollow Fiber Final Filter
removes bacteria at the dispensing valve
Carbon Deionization Organic or gun
Cartridge Cartridges Adsorption
Cartridge
19. WaterPro® Water Purification Systems
UF Life Sciences
Pistol Model Shown Ultraviolet Reactor
Purification Technologies/Features:
Carbon filtration removes organics and
chlorine from feedwater
Three nuclear grade mixed bed deionization
cartridges remove inorganic impurities
Ultrafilter removes all particles,
microorganisms and pyrogens greater than
0.01 micron in diameter
Ultrafilter Flush Valve directs a small
portion of purified water to drain during
Carbon Deionization Ultrafilter intermittent recirculation, to maintain
Cartridge Cartridges ultrafilter efficiency
20. WaterPro® Water Purification Systems
Pistol Model Shown Ultraviolet Reactor
UF Life Sciences
Purification Technologies/Features:
Ultraviolet reactor - UV light with dual
wavelengths of 185 and 254 nm ensures low
TOC and bacteria levels
Continuous/Intermittent Recirculation
maintains water quality and inhibits bacteria
growth throughout the system
Optional Hollow Fiber Final Filter removes
bacteria at the dispensing valve or gun
Carbon Deionization Ultrafilter
Cartridge Cartridges
21. WaterPro® Water Purification Systems
Pistol Model Shown Ultraviolet Reactor
HPLC/UF Hybrid
Purification Technologies/Features:
Carbon filtration removes organics and
chlorine from feedwater
Three nuclear grade mixed bed deionization
cartridges remove inorganic impurities
Organic adsorption cartridge removes
trace organics.
Ultrafilter removes all particles,
microorganisms and pyrogens greater than
0.01 micron in diameter
Carbon Deionization Ultrafilter
Cartridge Cartridges
22. WaterPro® Water Purification Systems
HPLC/UF Hybrid
Purification Technologies/Features:
Pistol Model Shown Ultraviolet Reactor
Ultrafilter Flush/TOC Dump Valve flushes the
ultrafilter membrane and directs a small portion
of purified water to drain during intermittent
recirculation, to maintain ultrafilter efficiency
and low TOC values
Ultraviolet Reactor – UV light with dual
wavelengths of 185 and 254 nm ensures low
TOC and bacterial levels
Continuous/ Intermittent Recirculation
maintains water quality and inhibits bacteria
growth throughout the system
Carbon Deionization Ultrafilter Optional Hollow Fiber Final Filter removes
Cartridge Cartridges
bacteria at the dispensing valve or gun
24. WaterPro® Water Purification Systems
Labconco offers free WaterProfile™ analysis
The WaterProfile Kit includes a
questionnaire to pinpoint
application needs, a bottle to fill
with feedwater (tap or pre-treated)
and a label and packaging for
returning the kit to Labconco.
25. Labconco Corporation
8811 Prospect Ave.
Kansas City, MO 64132
1-800-821-5525
816-333-8811
www.labconco.com