Methods from mechanical, electrical, chemical, and materials engineering, as well as computer science, drive innovation across scales—from the molecular level to entire ecosystems—and support solutions to challenges in health, manufacturing, and environmental sustainability.
Intragenomic Processor.
Epistasis, heterosis and pleiotropy study by DNA real time sequencing using spectroscopy transition method. Read more…
IP®-based method when applied at the scale of the human genome
High-resolution optical signatures of chromatin state.
This method (455 nm excitation + interferometric FT fluorescence detection) can resolve biochemical and structural states of chromatin, such as:
- Redox-state–dependent changes in NADH/FAD ratios
- Autofluorescence shifts caused by DNA damage (e.g., oxidation, crosslinks)
- Chromatin compaction / histone modifications that alter scattering and local environment
- Protein–DNA binding changes that shift fluorophore lifetimes
- Age-dependent accumulation of lipofuscin or porphyrin-related signatures
These are legitimate and measurable using advanced fluorescence methods. Read more…
DNA Sequencer Instrument Test Bench
The Test Bench was designed to check the concept of BETA DNA Sequencer, components, software and impedance spectroscopy method as itself implemented to BETA instrument design. The result had admitted the insolvency of the method and the whole project. Read more…
Remote controlled Candela 7055 Photonic Sequencer.
Ultra Fast Photon Spectroscopy of the DNA fragment method is developed as a sequencing the data flow of RNA polymerase molecule per cell collected using fragmentation of spectrum wavelengths of reflection of the sugar AGTC in timeline and assigning the classification to it as a particles specified in filtered data array. The mobile device can be adopted for running of most of the functions. Read more…