Kinetic Flooring. Step & Wattage Power

Kinetic Flooring. Step & Wattage Power

Leading kinetic floor tile companies like Pavegen and Energy Floors specialize in converting human footfall into renewable electricity for smart cities, retail, and events. These systems use electromagnetic induction, with each step powering low-energy lighting or generating data for,,digital, interactive, and sustainability initiatives. 

Key Kinetic Floor Tile Companies:

• Pavegen: A leading developer of smart tiles that convert footsteps into electrical energy and data. These tiles are commonly used in high-footfall areas like shopping centers and for interactive, sustainable event flooring.

Energy Floors: Focuses on sustainable, interactive flooring that generates energy for public spaces, retail, and educational environments, with over 800 installations worldwide.

Kinesik (Kinesik Engineered Products): Offers specialized tactile walking surface indicators, including fire-resistant tactile tiles for accessible, high-traffic commercial interiors. 

Technology & Applications:

• Energy Generation: Tiles, such as those from Pavegen, use a slight, 5mm compression to spin electromagnetic generators, creating 2-5 joules of off-grid energy per step.

Data Collection: The tiles, especially Pavegen's, can be equipped with sensors that track pedestrian traffic, creating heat maps and enabling rewards programs for users.

Use Cases: These solutions are ideal for high-traffic environments like train stations, stadiums, retail spaces, and public walkways.  

Note: The results from "Kinesik" appear to refer to tactile indicator tiles (safety flooring for accessibility) rather than energy-harvesting kinetic floors, based on the provided search data.

https://energy-floors.com

https://www.pavegen.com

There are a few ways to arrive at the same conclusion with kinetic Energy tiles like the two main modern leading brands utilize

S.B.G - CIG + C/M have patents, copyright & trademarks held in over 100 of 170 countries for how C/M has utilized Kinetics in different ways from Floor Tiles or under Road options which are two more open source innovative uses 

C/M had a Scale effort for under roads & specifics 

PIEZOELECTRIC ENERGY 

Piezoelectric energy (often referred to as piezo energy) is the electric charge that accumulates in certain solid materials—such as quartz, specialized ceramics, and polymers—in response to applied mechanical stress, such as pressure, bending, or vibration. Discovered in 1880 by Jacques and Pierre Curie, this technology converts kinetic energy from the environment into usable electrical energy. 

Key Aspects of Piezoelectric Energy

• How it Works: When piezoelectric materials are compressed or stretched, a shift in their internal charge creates an electrical potential (voltage) across opposite faces.

Mechanism: The process is reversible: applying mechanical stress creates electricity (direct effect), while applying an electric field causes the material to deform (converse effect).

Applications: It is primarily used to power small electronic devices, sensors, and wearable technology. It is also used in high-voltage applications like BBQ lighters.

Energy Harvesting: It is often used to capture, or "scavenge," small amounts of ambient energy from vibrations or foot traffic to charge batteries or supercapacitors.

Limitations: While effective for micro-powering, it is not currently suitable for large-scale energy production. 

Common Examples and Innovations

• Smart Flooring: Companies like Pavegen use tiles to convert footsteps in high-traffic areas into electrical energy for lighting or sensors.

Medical Devices: Piezo Energy Technologies (a subsidiary of UltraPower) focuses on using ultrasound to wirelessly transfer energy to implanted devices like sensors and pumps.

Industrial Sensors: Used in structural health monitoring to detect vibration or stress in infrastructure. 

What is Phryll Energy?

Research is being conducted into utilizing the piezoelectric effect in quartz to generate a constant flow of electricity, referred to as "[Phryll energy]".

ELECTROMAGNETIC INDUCTION 

Electromagnetic induction is the production of an electromotive force (EMF or voltage) across an electrical conductor in a changing magnetic field. discovered by Michael Faraday in 1831. It is the fundamental principle behind electric generators, transformers, and induction motors, allowing mechanical energy to be converted into electrical energy.

Key Principles of Electromagnetic Induction

• Faraday’s Law of Induction: States that the induced EMF in a circuit is directly proportional to the time rate of change of magnetic flux through the circuit.

Lenz’s Law: Dictates that the direction of the induced current opposes the change in magnetic flux that produced it.

Methods of Induction: Induced current occurs when a conductor moves through a stationary magnetic field, or when a magnetic field moves/changes around a stationary conductor.

Key Factors and Applications

• Factors Affecting Voltage: The induced voltage is increased by increasing the number of coils in a wire or the speed of the magnetic field change.

Applications: It is used in power plants to generate electricity, in transformers for AC power systems, and in everyday technology such as induction cooktops and car ignition systems.

Electromagnetic induction is essentially the opposite of producing a magnetic field from electric current (electromagnetism); it is generating electricity from magnetism.

https://youtu.be/LDOa7UdfcMQ?si=IhUlkDBT0QeVbhf6

https://youtu.be/qAUiBFJr9DE?si=uAXBFdbWQdHoC7C3

https://youtu.be/1ngE7JtocL4?si=wtdNXycELcBFz4N5

An electromagnetic induction generator converts mechanical energy into electrical energy by rotating a conductor (wire coil) within a magnetic field, or vice versa, creating a changing magnetic flux that induces a voltage. Based on Faraday's Law of Induction, this process generates an alternating current (AC) by cutting magnetic lines of force.

Core Principles and Components

• Faraday's Law: The induced voltage (Electromotive Force - EMF) is directly proportional to the rate of change of the magnetic flux linkage.

Components: Key parts include a rotor (rotating part), stator (stationary coil), magnets (permanent or electro), and slip rings/brushes to transfer current.

Fleming's Right-Hand Rule: Determines the direction of the induced current: thumb (motion), first finger (field), and second finger (induced EMF).

Factors Increasing Output: Higher rotation speed, stronger magnetic field, and more turns of wire in the coil increase the induced voltage. 

Types of Induction Generators

• AC Generator (Alternator): Produces alternating current; commonly used in power plants.

Induction Generator (Asynchronous Generator): A type of generator that uses the principles of induction motors, often used in wind turbines and mini-hydro plants. These require an external source for reactive power.

Linear Generator: Creates electricity through linear motion rather than rotation. 

Applications

• Power Generation: Used in large-scale power plants (wind, steam, hydro) to turn mechanical energy into electricity.

Portable Generators: Used for emergency power or in remote locations.

Vehicles: Bicycle dynamos and car alternators rely on this principle. 

https://youtu.be/qdG2QcFi_3c?si=8SORsvAZ9iXjbXdi

https://youtu.be/EXYKy_Ckchg?si=-kD1sTA8pqqT-vLj

Kinetics with C/M is inspired by this flooring just advances upon for high yield perpetual Energy gains for unlimited range & access 

CYPRESS MOTOR SPORTS