Page 6 - Blog

From rose petals to refined perfume, Sterlitech’s advanced membrane filtration technology is enabling safer, more efficient, and more scalable processes in the essential oil and fragrance industries. By offering alternatives to traditional heat methods, Sterlitech is helping producers preserve the aromatic integrity of botanicals while improving purity, safety, and sustainability.

Selecting the appropriate membrane is a critical step in the development of any product involving filtration, separation, or fluid control. However, with a wide range of materials, pore sizes, and surface treatments available, identifying the optimal solution can be time-consuming and complex, especially during early-stage development. Sterlitech’s membrane sample packs are designed to help R&D teams and engineers streamline the material selection process, reduce risk, and accelerate development timelines. 

Sterlitech’s silver membranes are pushing the boundaries of biomedical research and analytical precision. These membranes can be used to harvest gingival crevicular fluid GCF during orthodontic procedures where accurate metabolic profiling is required. Their inert, porous construction is essential for preventing sample contamination and preserving molecular structure during proton nuclear magnetic resonance ¹H NMR analysis. This allows for the precise identification of a wide range of metabolites associated with bone remodeling inflammation and tissue adaptation.

We’re excited to share that Ammar Hafiz, our Application Engineer for Membrane Process and Development, will be attending the North American Membrane Society (NAMS) 2025 Conference, taking place May 17–21 in Nashville, Tennessee. This annual event brings together leading researchers, students, and industry professionals dedicated to advancing membrane science and technology. 

In any laboratory setting, efficient liquid waste disposal is essential for maintaining a safe and contamination-free workspace. Lab aspiration systems play a crucial role in removing supernatants, culture media, and other liquid waste, but with multiple options available, selecting the right system for your workflow can be challenging. Explore a comparison of lab aspiration systems designed to help you identify the right fit for your needs.

As the world races toward a more sustainable future powered by renewables, we’re faced with a new challenge: what happens to the materials once they’ve served their purpose? 

That’s where the circular economy comes in. And behind the scenes, filtration plays a critical role in making it work.

Inorganic membranes distinguish themselves from polymeric membranes through their superior resistance to organic solvents, high thermal tolerance, and the absence of organic extractables and leachables. Unlike polymer-based materials, inorganic membranes are not composed of carbon-based molecular networks, which enhances their chemical stability. Among these, aluminum oxide (AO) membranes offer additional advantages, including precisely defined pore sizes, low adsorption, and minimal autofluorescence, making them particularly well-suited for high-resolution imaging and microscopy applications.¹ 

Sterlitech is proud to announce a new addition to our growing portfolio of specialty membranes. PrimeCare™ Blood Separation Membranes, now available for use in diagnostic and clinical applications where efficient plasma separation from whole blood is critical. 

Sterlitech offers flexible and cost-effective filtration equipment solutions that are ideal for labs with limited budgets or short-term projects. With a selection of rental and reconditioned systems, labs can access high-performance tools without the commitment of a full purchase.

One of the most reliable methods for synthesizing nanotubes and nanowires is template-assisted synthesis, which uses porous membranes as a structural guide to control the growth of nanostructures. Sterlitech’s track-etched polycarbonate (PCTE) membranes provide the ideal template for fabricating high-quality nanowires and nanotubes due to their precisely defined pore sizes and cylindrical structures.