How Noblis’ Patented Bioelectrical Sensor is Revolutionizing Pathogen Detection
Noblis is excited to announce that we have been granted U.S. Patent No. 12,385,078 for a revolutionary bioelectrical system that promises to bring unprecedented speed and accuracy to how we detect dangerous pathogens. This groundbreaking technology marks a significant leap forward in our ability to combat infectious diseases, ensure food safety and protect environmental health.
“We’re excited to be at the forefront of a biotech revolution,” said Mile Corrigan, president and CEO of Noblis. “This groundbreaking rapid detection capability can power far-reaching impacts across multiple industries to diagnose infections, identify food chain contaminants or detect pollutants in water or other environmental samples.”
At the heart of this breakthrough is a sophisticated bioelectrical sensor that leverages the natural capabilities of microorganisms in an entirely new way. Noblis’ scientists engineered a “reaction element” that acts as a miniature biological detective, working silently and swiftly. Here’s how it works.
- The sensor incorporates a primary organism specifically designed to detect a target pathogen. When this organism encounters its target, it reacts by generating a tiny electrical voltage – a biological “ping” that signals the presence of a threat.
- This initial voltage then triggers a secondary organism within the sensor. This second organism acts as an amplifier, transforming that subtle biological “ping” into a much larger, measurable electrical signal, turning up the volume on a critical alert.
“This bioelectrical cascade allows for an incredible level of sensitive and precise detection,” said Chris Barnett, Noblis’ chief technology officer. “The reaction element features a layered structure that facilitates the seamless flow of ions, ensuring that the detection by the first organism is communicated to the second, driving reliable and repeatable results.”
Noblis has coupled this cutting-edge technology to a user-friendly platform. Users simply load a fluid sample, and the system guides it through the detection process. The resulting electrical signal is transmitted to a dedicated computer that analyzes the data, identifies the pathogen and generates automated alerts. The entire process, from sample loading to pathogen identification, can take less than 15 minutes. This speed is crucial in situations where every second counts.