Cellular Therapy Device Using DVD Data Carrier for Frequency Control
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing devices for influencing cellular vibrations are limited in generating and delivering specific frequencies for therapeutic effects, requiring specialized knowledge and equipment, and can produce harmful upper harmonics, making them inaccessible and inefficient for widespread use.
Innovation Solution
A device comprising a central unit with a signal amplifier and a treatment unit featuring a metal wire antenna, connected via a signal forwarding cable, uses a DVD player-like source unit to read and process data carriers containing specific frequency signals, allowing for the generation and delivery of all known frequencies without specialized expertise, ensuring accurate and safe treatment.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If a limited number of waveforms are generated using program buttons on the central unit, then the device structure remains simple, but the adaptability for treating different diseases is reduced
Solution Approach 1:
The patent uses a data carrier (CD/DVD) that stores waveform data, allowing the device to access and play back recorded therapeutic waveforms without requiring complex internal waveform generation circuits. The data carrier serves as a copy of the waveform information, enabling diverse treatment options while keeping the hardware simple.
Solution Approach 2:
The central unit is designed with a universal interface that can read various data carriers containing different waveform data. This allows a single device structure to provide multiple treatment functions by simply changing the data carrier, making the device adaptable to different diseases without increasing hardware complexity.
2Measurement precision
If program buttons are used to set waveforms and physical parameters, then the device operation remains simple, but the precision and accuracy of treatment frequencies are reduced
Solution Approach 1:
Precise frequency and waveform data are pre-recorded on the data carrier with high accuracy. The device simply reads and reproduces this data, eliminating the need for manual precision setting while maintaining high frequency accuracy. The data carrier acts as a precise template that ensures consistent, accurate treatment parameters.
Solution Approach 2:
All frequency settings, waveform parameters, and treatment data are prepared in advance and stored on the data carrier. This preliminary preparation of precise parameters eliminates the need for real-time precision adjustment during operation, combining high precision with ease of use.
3Productivity
If the device generates only a few frequencies, then the device complexity remains low, but the productivity for extensive therapeutic activity is reduced
Solution Approach 1:
The data carrier stores multiple frequency waveforms and treatment protocols that can be sequentially accessed. This allows the device to provide extensive therapeutic coverage by playing back different recorded waveforms, achieving high productivity without requiring the device to generate frequencies synthetically through complex circuits.
Solution Approach 2:
The device can cycle through different therapeutic frequencies and waveforms stored on the data carrier, providing comprehensive treatment through periodic alternation of different frequency patterns. This enables extensive therapeutic activity by systematically delivering multiple treatment frequencies over time.
4Ease of operation
If specialized knowledge is required to operate the device, then the treatment accuracy can be maintained, but the accessibility to widespread use is reduced
Solution Approach 1:
Expert therapeutic protocols and frequency settings are pre-recorded on the data carrier by specialists. Users simply need to select and play back these pre-prepared programs, gaining access to accurate, expert-level treatments without requiring specialized knowledge themselves. The data carrier encapsulates the expertise.
Solution Approach 2:
The device automatically executes the therapeutic protocol by reading the data carrier and generating the appropriate waveforms without requiring user intervention for parameter setting. This self-service operation ensures treatment accuracy is maintained while making the device accessible to non-experts.
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
Enables efficient, accessible, and customizable treatment by allowing all known frequencies to be produced and delivered accurately, reducing the need for trained specialists and increasing treatment accessibility and effectiveness, while being simple to operate and cost-effective.
Implementation Method 1
the treatment part-unit is formed by an antenna made of a metal wire placed in an embedding body... all living organisms generate special vibrations having a frequency characteristic of the given structure. If the frequency is known, it is possible to influence the operation of the given cell
Implementation Method 2
the driving part-unit of the central unit is supplemented with a signal amplifier part-unit... the signal amplifier part-unit is connected to the external signal receiving input
Data Source
Figure 1
AI summary
The invention relates to set of devices for influencing the operation of cells according to the invention, which comprises a central unit and a treatment part-unit connected to the central unit, the central unit has a driving part-unit for producing electric signals, where the driving part-unit is connected to the treatment part-unit with the help of a signal forwarding cable, the central unit has an external signal receiving input, the external signal receiving input is connected to a source unit suitable for reading alterable data content through the information forwarding channel, the driving part-unit of the central unit is supplemented with a signal amplifier part-unit, and the signal amplifier part-unit is connected to the external signal receiving input. The characteristic feature of the invention is that the driving part-unit (13) contains a FET final amplifier (13a) and a square signal generator (13b), and the treatment part-unit (20) is formed by 2-15 m long antenna (22) with a diameter of 0.5-3.5 mm created from a metal wire in the shape of a wave, placed in an embedding body (21), the antenna (22) has a connection gate (22a), and the connection gate (22a) is connected to the central unit (10) via the signal forwarding cable (30).