C/M Sound. Energy. Speakers PZ
C/M + ENERGY END GAME. SPEAKERS
With Sydney Nicola Bennett
Now after you learn H.I.3. This shuts Energy down
THIS IS THE END. A NEW START
This inventive innovation by Sydney Nicola Bennett for C/M (S.B.G - CIG) is a foundational global Energy service to the planet allowing low cost High yield perpetual Energy for anyone & anything. The biggest feat in human history & Zero emissions
We utilize under 100 Watt average & gain returns of 2500 kW +
1 kilowatt =1000 watts
MODERN GAINS
180+ Beats per minute. Earns 2500+ kW in under a second consistently
Integrating PZ Taps (Kinect Energy Generators) into a traditional accoustic speaker which acts as a shaft held in a sound proof box we then utilize sound simulated for different use & purpose separate from features sound (music or entertainment)
This discloses road & compjnent if not in-cab occupant sound
Yields increase with PZ Taps as speakers contract & expand allowing under 25 or under 5% of Energy gains used to operate while we extract 75% or more
Simply turn up the volume & pair it to Energy Generation & even acceleration or deceleration in automobiles
TRADITIONAL APPROACH
Speakers convert electrical energy into acoustic energy (sound) by using an electric current to create a magnetic field that vibrates a cone, forcing air particles to move. This process is reversible: loud sound waves can vibrate a speaker cone, which interacts with the magnet and coil to generate a small amount of usable electrical energy.
Key Principles of Speaker Energy Conversion:
• Electrical to Sound (Standard Operation): An electric current flows through a voice coil, creating an electromagnet that interacts with a fixed magnet. This magnetic force moves the speaker cone back and forth, vibrating the surrounding air to produce sound.
Sound to Electrical (Harvesting/Reverse Function): A speaker can function in reverse as a microphone or generator. Loud sound vibrations (kinetic energy) push the speaker cone, moving the voice coil within the magnetic field to create a small electrical voltage, as explained in the ELI5 Reddit discussion.
Power Harvesting Potential: While impractical as a primary energy source, researchers have found that high-intensity sound waves (such as a loud Just Energy blog post suggests from loud music or industrial noise) can be captured using this method to power small devices like LEDs.
Energy Transformation Chain:
1. Electrical Signal: Amp sends electricity to the speaker coil.
Magnetic Field Interaction: Current makes the coil and cone move.
Mechanical Energy: The cone moves back and forth.
Acoustic Energy: The vibrating cone moves air, creating sound.
For a hands-on demonstration, see the Instructables guide on harnessing sound power
External Reference
How Speakers Make Sound
https://youtu.be/RxdFP31QYAg?si=-P7sZ-3XoDyJVwpm
We hit 3-5+ in under 1 second contractions variable equal generating our consistent 2500 kW
Fast-paced music with intensely rapid, repeating beats—often referred to as having a "3-5 millisecond" gap between hits—usually corresponds to extreme genres with BPMs (beats per minute) well over 200, often reaching into industrial, gabber, or breakcore territory.
Fast Beat Characteristics & Genres
• Industrial/Rave: Extremely fast tempos often exceed 180–200+ BPM, creating a machine-gun effect. A notable example of extreme tempo is Moby's "Thousand," which reaches over 1,000 BPM.
Hardcore Punk/Thrash: Genres like Motörhead or Rise Against feature fast, energetic drumming.
Trap/Hip-Hop: Fast, rolling hi-hats (often programmed in 1/32 or 1/64 notes) create high-speed rhythm sensations.
Breakcore/Drum & Bass: High-speed, frantic, and chopped-up drum patterns.
Finding Fast Beats
• Spotify Playlists: Search for playlists like "Hard Drops", "Speed Beats (Ultra Tech Rhythms Only)", or "Fast-paced editing".
YouTube: Look for "Fast Type Beats" or "Aggressive Hard Trap Beat".
Royalty-Free Sites: Sites like Storyblocks and Epidemic Sound allow searching for "Super Fast Beat" or specific BPM ranges.
Key Terminology for Fast Music
• Presto: Extremely fast (168–177 BPM).Vivace: Lively and fast (132–140 BPM).BPM: Beats Per Minute—higher numbers mean faster, such as 150+ BPM.
For extremely rapid, repetitive sounds, searching for "industrial techno" or "gabber" on streaming platforms will provide the highest concentration of fast-beat music.
We require an excess of 60 beats per minute BPM reaching 3-5+ above per second or 180+ beats in a minute to acheive the 2500 kW
Same 5 year+ 24/7 at 365 day annual reliability just altered into a speaker system then adjusted for that 5-25% Energy loss increasing Taps before additives. All the same as other Kinetic Energy Generators
Example. Basic 200 BPM Beat Per Minute
https://youtu.be/XRTUZg_mMcA?si=N2NIkb6vRhY2zeLl
Example. Basic 1000 BPM Beat Per Minute
https://youtu.be/CUJcxk9q1fg?si=HeRtJKxOTX3vRrF8
Sound Check - Basic
https://youtu.be/DIsST2E_4-4?si=2O3nfBKEykoBTrxh
Speakers are consistent yet other options work close to as in programmable or mechanical non-programmable effects
1000 / 60 = 16.66 per second yields not just 3-5+
https://youtu.be/EUAbIvvvdlQ?si=9kGBoufsUs3xW1U4
10,000 / 60 = 166.66
Simply set Beat & volume threshold for reliable Energy Generation & Extraction for use & storage
"This is like 166 people step on a tile in a second & every second they keep stepping non-stop yet on over 50,000 micro-tiles generating 2500+ kW every step"
This inventive innovation by Sydney Nicola Bennett for C/M (S.B.G - CIG) is a foundational global Energy service to the planet allowing low cost High yield perpetual Energy for anyone & anything. The biggest feat in human history & Zero emissions
If we do not shrink PZ Taps before additives in under a second we are doing over 400,000 kW at 166 BPS from 10,000 BPM just from Beat gains per millisecond digitalized in consistency at 2500 kW standard
That's 24 Million kW in 1 minute or 1,440,000 Million kW in 1 hour then 34,560,000,000 in 24 hours
In Stationary Plants we Meter fair like our Automotive Meter Rates. R&D fee & Taxation
34 billion kilowatts converts to:
Megawatts (MW): 34 million MW
Gigawatts (GW): 34,000 GW
34 Terawatts
The hydroelectric power plants at Niagara Falls have a combined, total generating capacity of approximately 4.4 to 4.9 gigawatts (GW).
This capacity is shared between the United States and Canada, supplying enough clean energy to power millions of homes and industries in both countries
Hydroelectric. Geothermal. Kinetic. Hydrogen
All clean renewable viable Energy
"We can scale reaching or exceeding Niagara Falls just anywhere"
To set up we require increased units at a Stationary Energy Plant from 1 at 400,000 meeting 5 Million (13 Units)
5 Gigawatts (GW) per second equals 5,000,000 Kilowatts (kW) per second
"Likely 1050 - 5000 Sq Ft building size required"
FRACTURED. REQUIRED ENERGY
We utilize under 100 Watt average & gain returns of 2500 kW +
1 kilowatt =1000 watts
Our largest size unit even with Speaker integration 12" x 60" in inches (external casing) with Emergency Safety System
30" x 3" rectangular square are smaller sized. Energy Chips are in R&D
"We can build a slightly larger unit yet we are taking from automotive designs even for Stationary not Motion"
The energy required to operate a speaker depends heavily on the desired volume, speaker efficiency (sensitivity), and room size, rather than just the maximum power rating listed on the box. In most home scenarios, speakers actually consume very little power, typically running on a fraction of one watt to 10 watts for average listening.
Key Power Requirements
• Average Listening (Home): 1–10 watts.
Loud Listening (Party/Home Theatre): 20–50 watts.
Small Bluetooth Speaker: 3–10 watts.
Active Speaker Idle: 20–50 watts (used to power internal electronics).
Factors Affecting Energy Usage
• Sensitivity/Efficiency: A high-sensitivity speaker (90 dB or higher) requires far less power to sound loud than a lower-sensitivity speaker. For example, a 95 dB speaker needs roughly 3x less power than a 90 dB speaker to achieve the same volume.
Volume Control: Power consumption increases with volume. To double the perceived loudness, you need roughly 10 times the power.
Bass Frequency: Lower frequencies (bass) consume significantly more power than high frequencies.
Room Size: Doubling the listening distance requires four times the power from the amplifier.
Active vs. Passive Speaker Power
• Active (Powered) Speakers: These have built-in amplifiers and typically draw power from a wall outlet, even when idle (often 10-30W) to keep the electronics on, regardless of whether sound is playing.
Passive Speakers: These require an external amplifier to function. The energy consumed is determined by the amplifier's efficiency (e.g., Class D amps are more efficient than Class A/B).
• Classrooms/Small Areas: 10–30 watts.
Shopping Mall/Cafe: 30–80 watts.
Factories/Loud Environments: 100–200+ watts.
Concert Venues/PA Systems: 750–2,000+ watts.
For most, a 50-watt to 100-watt amplifier is more than sufficient for home use, as they rarely operate at full capacity.
Expanded
https://youtu.be/fgOD_oWsBuY?si=3x4NrG1VbgSF1Zdf
C/M Sound. Energy. Speakers PZ
HARNESSING POWER
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