Water Products & Testing Facility | Hallmark Laboratories

Current Projects

1. Biocompatible Mega Filter for RO Wastewater Reuse

Project Overview:
In recent years, the environmental implications of wastewater generated by Reverse Osmosis (RO) filtration systems have garnered significant attention. Traditional RO systems often operate at a ratio of 2:1, meaning that for every gallon of purified water produced, an equal or greater volume of wastewater is generated. This waste stream poses challenges to water conservation efforts and has detrimental effects on the environment, particularly in areas facing water scarcity. To address these pressing issues, our project aims to develop an innovative solution: a biocompatible mega filter specifically designed to treat and reuse the wastewater generated by RO filtration plants. This mega filter will serve as a secondary filtration system, efficiently capturing and adsorbing various pollutants found in the waste stream, thereby minimizing the environmental impact and enhancing water sustainability.

2. PFAS Destruction in Water Filtration Media

Project Overview: 
Hallmark Laboratories is dedicated to addressing the persistent environmental challenge posed by per- and polyfluoroalkyl substances (PFAS). These “forever chemicals” are known for their resistance to degradation, accumulating in water, soil, and filtration media, and posing significant risks to ecosystems and human health. Our project focuses on developing innovative techniques for the complete destruction of PFAS in used filtration media such as RO water filtration and water softeners systems, rather than merely removing or transferring them to other phases. This project builds on Hallmark Laboratories’ expertise in water purification and treatment technologies, including previous successful applications in removing heavy metals and other contaminants from water using novel biomaterials. With a strong foundation in research and innovation, we are committed to pioneering effective strategies to eliminate PFAS and safeguard environmental health for future generations. Through continuous research and development, we strive to create impactful solutions that can be adopted across various industries to combat PFAS pollution.
 

3. Replacement of Organic Softener Resin with Biomaterial-Based Resin

Project Overview: 
This project focuses on developing eco-friendly alternatives to conventional synthetic resins used in water softeners. By replacing synthetic resins with biomaterial-based options, we aim to create sustainable and biodegradable solutions that effectively remove hardness-causing ions from water. Our approach emphasizes reducing environmental impact, minimizing chemical use, and ensuring compatibility with existing water softening systems. This innovation aligns with our commitment to advancing environmentally responsible technologies in water treatment.

4. Multi-Compartment Tank for Transitioning Snow and Regenerated Water into Useful Water

Project Overview: 
This project aims to design an innovative multi-compartment tank system to efficiently convert snowmelt and regenerated water into usable water supplies. The system integrates advanced purification technologies and strategic compartmentalization to separate, filter, and store water for various applications. By focusing on sustainability and resource optimization, this project seeks to provide an eco-friendly solution for recycling water sources, reducing waste, and promoting efficient water management in residential and industrial settings.

5. Development of a High-Performance, Eco-Friendly Windshield De-Icer

Project Overview: 
This project focuses on creating a high-performance windshield de-icer that is both effective and environmentally friendly. The formulation emphasizes the use of biodegradable and non-toxic ingredients to ensure safety for users and minimal environmental impact. Designed to deliver superior de-icing capabilities even in extreme temperatures, this innovative solution aims to provide a sustainable alternative to traditional de-icers, reducing chemical runoff while maintaining performance and convenience for consumers.