A nanoscale quantum three-dimensional thermal imaging system for tumor cells

Abstract

A tumor cell nano-scale quantum three-dimensional thermal imaging system comprises a nanometer positioning platform connected to output of a controller. A tumor cell sample is placed on the nanometer positioning platform, an excitation light source and a microscope objective lens are arranged above the sample, the output of the microscope objective lens is connected to a beam splitter mirror through a light filter, and light is split into reflected light and transmitted light by the beam splitter mirror. The reflected light is connected to input of a spectrograph through a tube mirror, the output of the spectrograph is connected with first input of a work station, and the tube mirror and the spectrograph form a quantum temperature measuring light path. The transmitted light is connected to the input of an EMCCD detector through a first convex lens, a phase modulation sheet and a second convex lens, and the output of the EMCCD detector is connected to second input of the work station. The first convex lens, the phase modulation sheet, the second convex lens and the EMCCD detector form a three-dimensional positioning light path, and the output of the work station and the input of a display are connected. In the invention, real-time detection of a temperature field in a tumor cell is realized in rapid and non-destructive modes, and a three-dimensional temperature field of the tumor cell is obtained.

Description

technical field [0001] The invention relates to the technical field of biological thermal imaging, in particular to a nanoscale quantum three-dimensional thermal imaging system for tumor cells. Background technique [0002] The study of tumor cell lesion mechanism is a hotspot in the field of biomedicine, and the micro-nano scale heat generation and transfer under unconventional conditions is directly related to tumor cell metabolism and lesion. Due to the heat sensitivity of tumor cells, temperature itself is a key factor in the pathological research and comprehensive treatment of tumor cells. For example, high fever can reduce the metabolism of tumor cells, enhance the killing effect of radiation and improve the chemotherapy effect of drugs. The research on exploring tumor cell therapy methods is also going deeper into the thermal analysis of biomolecules, such as the thermal tolerance of tumor cells related to heat shock protein (HSP), and the immune response initiated by...

AI Technical Summary

Problems solved by technology

Today's cell thermal imaging methods are mostly limited to the average temperature of the plane, which loses the axial temperature information, which is not conducive to the analysis of the temperature field of the biological micro-nano structure of tumor cells

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