• MOSPR technology provides increased sensitivity compared to conventional SPR. This is accomplished by adding a thin layer of metal oxide to the metal’s surface, which enhances the plasmon resonance signal.
• Better stability: MOSPR sensors are more stable than standard SPR sensors. The metal oxide layer on the surface of MOSPR sensors reduces non-specific binding and increases the stability of the sensor over time.
• Real-time monitoring: MOSPR sensors enable real-time monitoring of biomolecular interactions, which is not possible with conventional SPR. Biomolecular interactions can be measured with greater precision and dynamism using real-time monitoring.
• Label-free detection: MOSPR sensors enable label-free detection of biomolecules, thereby removing the need for fluorescent or radioactive labeling. This simplifies the experimental protocol and reduces the possibility of influencing the biomolecular interactions being measured.
• Multiplexed detection: MOSPR technology permits the detection of multiple biomolecular interactions simultaneously. Various biomolecules are functionalized on an array of MOSPR sensors to accomplish this result.
• MOSPR sensors are manufactured at a lower cost than conventional SPR sensors. This is because the metal oxide layer on the surface of MOSPR sensors is less expensive than the gold layer used in conventional SPR sensors.

MOSPR technology represents a significant advance in the field of biomolecular interaction analysis and is likely to have a substantial impact on the development of novel drugs and therapies.