Mixing And Blending, Powder Flow, Food Texture, Bulk Mixing, and Food Processing news and information Mixing And Blending, Powder Flow, Food Texture, Bulk Mixing, and Food Processing news and information

PRODUCTS

  • What is water reuse?

    Water reuse is the process of treating and reclaiming water from various sources for practical purposes, including groundwater recharge, industrial applications, wetland restoration, agricultural irrigation, public access area uses, as well as drinking water applications. By reusing water, communities can reduce dependence on traditional water supplies, avoid costly imported water from 3rd party providers, and improve resilience in water systems. Thanks to progress in water treatment technology, along with economic and regulatory incentives, water recycling has become a cost-effective and sustainable solution to meet the growing demand for highly treated water and overcome supply shortages during droughts.

    There are three primary types of water reuse: Indirect Potable Reuse (IPR), Direct Potable Reuse (DPR), and Non-Potable. In IPR reuse systems, advanced treated water is either injected into an environmental buffer (groundwater, river, or reservoir) before being extracted again for use, whereas DPR is directly blended into the drinking water treatment plant or distribution system. Non-potable water is not intended for human consumption and can be used for irrigation, industrial processes, laundry, or toilet flushing.

    Advanced treatment technologies, such as membrane filtration, reverse osmosis, ultraviolet disinfection, ozonation, and advanced oxidation processes (AOP), play a crucial role in ensuring the quality and safety of reclaimed water.

    Why reuse water? 

    As water scarcity continues to rise, water reuse is an essential strategy for creating a more sustainable future. The use of recycled water reduces the demand for freshwater sources, which are becoming increasingly scarce due to population growth, climate change, and other factors.

    Here are some key benefits of water reuse:

    • Safeguard quality and resilience: Reused water is purified well beyond drinking water standards, improving resilience and ensuring quality for both potable and even non-potable purposes.
    • Uphold safety: Treatment processes like ozone and ultraviolet light can be used to disinfect or break down complex contaminants, ensuring water is pathogen-free and concentrations are below maximum contaminant levels (MCL).
    • Ensure cost savings and efficiency: After treating a waste stream to discharge level, it may require less treatment to bring it to reuse standards, making reuse not only environmentally responsible but also cost-effective in many scenarios and locations.
    • Conserve traditional water supplies: By reusing water, we can lessen our reliance on conventional water resources like rivers, lakes, and aquifers, thereby conserving them for future generations.
    • Reduce carbon footprint: Water reclamation is often more efficient than treating a raw water resource, which can lessen environmental impact.
    • Enable versatility and customization: Advanced treatment systems are tailored to meet specific needs for a variety of sectors, including industrial, urban, agricultural, and public access area uses.

    How to reuse water 

    The major aim of every reuse project is to minimize human health risk associated with the use or consumption of reclaimed water. While the exact treatment requirements depend upon the source water quality and the reuse purpose, to be cost-effective, the treatment must be energy efficient and have a high-water yield.

    An adequate treatment design plan depends on the application the water will be used in. In non-potable applications, normally filtration and disinfection will suffice, while potable reuse generally requires a combination of advanced treatment processes such as membrane filtration, reverse osmosis, disinfection, and/or advanced oxidation.

    Xylem has brands and solutions to fit every stage of the water reuse process: 

    • beginning with the transport of raw sewage and wastewater with Xylem brands like Flygt
       
    • to secondary treatment to remove most dissolved and suspended organic matter and nutrients with brands like Sanitaire and Envirex
    • to tertiary stages that remove residual particulate matter, nutrients, TDS, and nematode eggs with brands like Leopold and Davco
    • along with disinfection and advanced oxidation that inactivates pathogens, and breaks down trace constituents and emerging contaminants of concern with brands like Wedeco, ETS-UV, ATG UV Systems, Pacific Ozone, and Wallace & Tiernan 
    • and finally, digital solutions like YSI, OI Analytical, Xylem Vue that leverage remote monitoring, alerts, and data analytics for proactive and predictive maintenance

    Based on practical knowledge from decades of combined brand experience, thousands of installations worldwide, and strengths in powerful R&D innovation, our team looks at the entire wastewater process at your plant. We will work with your consulting engineer and State regulators to integrate the right technologies to meet your intended targets. Modular design makes it easy to fit your requirements now and easily expand to meet your future needs.

    Water reuse partnership 

    Though Xylem has teams of specialists, years of expertise, deep understanding of water regulations, and a broad solutions portfolio, we understand the complexities of water systems and the potential to partner with various water treatment experts. Xylem has partnered with hundreds of different firms around the globe to ensure the most efficient and viable water systems for communities and municipalities.

    Our goal is to thoroughly understand each project, determine the best methods, and customize optimal solutions that meet local regulations and requirements while delivering resiliency, quality, and cost savings.

    Let us be your partner in making every drop count. Contact us today to discuss your project needs.

  • Discover the BD FACSLyric™ Flow Cytometer difference.

    • Witness results you have never seen before through high sensitivity and improved resolution
    • Streamline your lab workflow through flexibility and automation, enabling efficiency and productivity
    • Achieve automated standardization through highly reproducible results and enable collaboration through assay portability

    See how the BD FACSLyric™ System can transform your lab.

  • The flowIQ 3200 meter is a great fit for commercial and district metering with its advanced ultrasonic technology and smart capabilities. This meter provides unparalleled visibility into water usage, helping prevent revenue loss and manage your water resources more efficiently.

  • QPF4209 is a Wi-Fi 7 front end module that integrates a PA, SP2T switch, and LNA. It offers optimized performance, low power consumption, and a compact design.

  • StabilityPlus™, phase-stable cable assemblies, are designed for high-performance, ruggedized microwave/RF applications. They offer excellent measurement repeatability and durability, reducing the total cost-of-test.

WHITE PAPERS AND CASE STUDIES

NEWS

ABOUT

Mixing and Blending
Mixing and blending are terms that have specific meaning in the food industry.  Most food processing experts use the word mixing to describe the process of combining wet and dry materials.
Blending is the term used to describe the process of combining only dry ingredients.  The term blending is generally reserved for powders, flakes and granules of varying bulk densities and particle size that require gently blending and minimal contact with blender blades.
Agitation is often used synonymously with the term mixing. However, in food processing, agitation is used to ensure the mixing process to get a homogenous mix is completed faster.
Many industries require the mixing of free-flowing powders. The art of mixing involves different dilution geometries (a geometry is a way of combining unequal amounts of fine powders to ensure an equal distribution).
The geometric mix used depends on the size distribution, shape, particle density, composition and internal structures.  Other properties include flow ability, bulk density, mixture quality, dustiness and properties of segregation.
Industrial mixers are used to do the blending and mixing.  The shape and hardness of the materials being mixed affects the horsepower required to run the mixer.  The type of mixer used in a production line varies depending on the materials that need to be mixed or blended. Paddle mixers are often the best choice for production line mixing because they are easy to clean, have less surface area, and have a minimal number of parts.
Mixing and blending is generally a sub-process within an overall process cycle so when placing a mixer it is important to consider how it integrates into the whole system. That includes impacts to both upstream and downstream product handling.