Within the interconnected microchannels, an applied electric field drives nucleic acids or proteins through the LabChip. Their movement reflects molecular size and charge, allowing different analytes to separate as they travel through the microfluidic pathway. This controlled separation supports consistent sizing and quantification without requiring researchers to manually resolve bands on a conventional gel.
Fluorescent detection records the separated analytes and produces an electropherogram, a graphical representation of the analytical signal. The resulting profile helps researchers evaluate biomolecule size and quantity, while the system’s automated data analysis supports standardized interpretation. This output is particularly useful when comparing nucleic acid or protein samples across biological experiments.
Disposable LabChips provide a standardized microfluidic format for processing samples, while automated operation and data analysis reduce variation associated with manual handling and interpretation. Their small sample requirements also conserve material, which is valuable when biological samples are limited. Together, these features help researchers evaluate multiple samples efficiently and improve consistency across experiments.
A typical analysis begins with introducing the biological samples into a disposable LabChip. The instrument then uses an electric field to move analytes through the interconnected microchannels, where separation occurs. Fluorescent detection captures the separated material, and automated analysis generates an electropherogram that researchers can use to assess nucleic acids or proteins.
Researchers may choose Experion Labchip when they need a rapid, standardized assessment of biomolecules with small sample requirements and automated data analysis. The system can support routine evaluation of DNA, RNA, PCR products, or proteins while reducing dependence on manual gel-based processing. It is therefore useful when efficiency and consistency are important experimental priorities.
In biology, the system supports DNA and RNA quality assessment, PCR product analysis, genomic workflows, and protein characterization. These applications use the generated electropherogram to examine biomolecule separation, size, and quantity. By providing a standardized assessment across these workflow types, the instrument helps researchers judge sample quality and characterize experimental products efficiently.