Low Energy Laser Spectroscopy Quantum Entanglement
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Solution Overview
Problem
Conventional spectroscopy methods require high energy levels, which are not suitable for in vivo human tissue studies and can risk dispersion of cancerous cells during tumor biopsies, necessitating a less invasive approach.
Innovation Solution
The use of low energy laser spectroscopy (LELS) that employs quantum entangled omnipresent cosmological dark matter particles (OCDM) and dark energy (OCDE) to achieve sensitive and non-invasive spectral analysis, utilizing a single strand fiber optic for both emission and reemission, allowing for precise sampling and data collection without tissue disruption.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If high energy lasers are used for spectroscopy, then spectral analysis capability is improved, but tissue damage and cancer cell dispersion risk increase
Solution Approach 1:
The patent fundamentally changes the energy parameter of the laser from high to low levels. LELS uses low energy laser excitation (typically in the visible or near-infrared range) instead of high energy lasers, allowing spectral analysis to be performed on live biological tissues without causing damage or inducing fluorescence that would require high energy input. This parameter change resolves the contradiction by maintaining measurement capability while eliminating harmful effects.
2Quantity of substance
If needle biopsy is used for tumor sampling, then tissue sample acquisition is improved, but cancer cell dispersion risk increases
Solution Approach 1:
The patent replaces the mechanical needle biopsy system with an optical field-based LELS system. Instead of physically inserting a needle to extract tissue samples, the invention uses low energy laser radiation to interact with the tissue in situ, obtaining spectral information without mechanical disruption. This substitution eliminates the risk of cancer cell dispersion while still achieving the goal of obtaining diagnostic information from the tissue.
3Power
If high energy radiation is used for spectroscopy, then excitation capability is improved, but in vivo applicability deteriorates
Solution Approach 1:
The patent changes the power parameter of the excitation source from high energy to low energy levels. LELS employs low power laser diodes or other light sources that can safely penetrate biological tissues without causing thermal damage, photochemical damage, or excessive fluorescence. This parameter modification enables the spectroscopy technique to be applied in vivo, resolving the contradiction between excitation capability and biological compatibility.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
LELS provides extreme sensitivity and noiseless spectra, enabling non-destructive medical diagnostics, including in vivo tumor tissue studies, with incremental energy increase post-excitation, facilitating precise and safe oncology diagnosis and treatment.
Implementation Method 1
The low energy laser method allows for omnipresent cosmological dark matter particles (OCDM) and omnipresent cosmological dark energy (OCDE) to become entangled with other particles and energies in the laser's quantum well
Implementation Method 2
The OCDM has the capability of quantum tunneling, sampling specimen data, collecting specimen excitation data, and same time reemission back through the tunnel created
Implementation Method 3
use of low energy laser spectroscopy (LELS) that employs quantum entangled omnipresent cosmological dark matter particles (OCDM) and dark energy (OCDE)
Implementation Method 4
utilizing a single strand fiber optic for both emission and reemission
Data Source
AI summary
An extremely sensitive spectroscopy method utilizes a laser modified to an extremely low emission with an integrated control system, interfaced within a typical Raman platform to comprise low energy laser spectroscopy (LELS). LELS acquires and utilizes a quantum entangled state of photons and particles, including omnipresent cosmological dark matter particles (OCDM) and omnipresent cosmological dark energy (OCDE). The OCDM and OCDE matter has an affinity to particles of same OCDM and OCDE matter in target specimens, with same-time data results of high sensitivity. In a semiconductor light emitter, electron flow at a low energy level is provided to a quantum well to produce a quantum tunneling of electrons into an active region of the laser quantum well and creating sublasering. Sublasering allows OCDM and OCDE to become entangled with other particles and energies in the laser's quantum well and create a transmission package comprising quantum entangled fields, waves, wave packages, states and energies. Providing a triggering pulse causes a second tunneling, carrying the transmission package for emission.