Electrical Current Therapy for Myocardial Tissue Repair
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Solution Overview
Problem
Current treatments for damaged myocardial tissue, impaired membrane potentials, and reduced cellular functions in aging cells and pancreatic tissues are inadequate, as they fail to effectively stimulate cellular repair and insulin production, and often lead to arrhythmias and impaired metabolism.
Innovation Solution
The application of anodal or biphasic electrical currents to biological tissues to increase membrane potential, align stem cells, enhance ATP production, and stimulate insulin secretion, using a device with a generator circuit and electrodes to administer the electrical therapy.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional treatments are used for damaged myocardial tissue, then supportive care is provided to allow scar tissue formation, but cellular repair and regeneration are insufficient
Solution Approach 1:
The patent replaces conventional mechanical/supportive care with electrical current application to stimulate cellular repair. Electrical currents are applied through electrodes to damaged myocardial tissue to enhance membrane potential, promote stem cell differentiation, and accelerate cellular regeneration, thereby improving both cardiac function reliability and cellular repair productivity
Solution Approach 2:
The patent changes the electrical parameters of the tissue by applying external electrical currents that modify membrane potential. This parameter change stimulates cellular processes including stem cell alignment, differentiation into functional myocytes, and enhanced ATP production, leading to improved cardiac function and cellular regeneration
2Productivity
If stem cells are infused into damaged myocardial area, then cell implantation is achieved, but cells do not line up properly and may form re-entrant circuits causing arrhythmias
Solution Approach 1:
The patent replaces passive stem cell infusion with active electrical stimulation to guide stem cell behavior. Electrical currents applied through electrodes create directed forces that align stem cells along favorable pathways and prevent random orientation, thereby improving implantation productivity while preventing arrhythmias
Solution Approach 2:
The patent employs electrical feedback mechanisms where the applied currents respond to and guide stem cell orientation in real-time. This feedback control ensures stem cells align properly with cardiac fibers and prevents formation of re-entrant circuits, simultaneously achieving high implantation efficiency and arrhythmia prevention
3Productivity
If cathodal currents are applied to Beta cells, then depolarization is forced to initiate insulin secretion, but the role of anodal current is not appreciated or investigated
Solution Approach 1:
The patent inverts the conventional understanding by demonstrating that anodal currents (rather than only cathodal currents) play a crucial role in Beta cell depolarization and insulin secretion. This inversion expands the therapeutic approach and improves adaptability by utilizing both anodal and cathodal currents for different phases of insulin production
Solution Approach 2:
The patent establishes that electrical currents serve multiple functions: anodal currents promote depolarization and insulin secretion, while cathodal currents provide complementary effects. This multi-functionality enhances the versatility of electrical therapy for pancreatic tissue, enabling tailored treatment protocols for different physiological needs
4Reliability
If low membrane potentials are present in arteries, then impaired metabolism occurs, but treatments to correct this are insufficient
Solution Approach 1:
The patent replaces conventional metabolic support with direct electrical intervention to correct membrane potential in arterial cells. Electrical currents applied through electrodes restore proper membrane potential, thereby improving metabolic function reliability and increasing metabolic rate productivity
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
This approach improves stem cell alignment and differentiation, increases ATP production, enhances insulin secretion, and improves cardiac function, while also promoting cellular rejuvenation and preventing cancer by effectively increasing membrane potential and metabolic activity.
Implementation Method 1
applying an electrical current, which can be anodal or biphasic, to the appropriate tissue and cells
Implementation Method 2
for increasing cellular production of ATP
Implementation Method 3
Depolarization in areas other than heart and nerve tissue is poorly appreciated as in the Beta cell in the pancreas where depolarization initiates the secretion of insulin
Data Source
AI summary
A method and device for performing electrical current therapy on biological tissue. The device can operate continuously as a bio-energetic thermostat to continuously provide electrical current therapy, or based on sensing parameters and providing electrical current therapy only when the parameters indicate that the electrical current therapy is to be applied.