The 6" versions offer multiple ways to use a Plasma Spinner™.
1. You can use the grounding strap when you touch the top of the globe for a spin around the Plasma Spinner™ ring that varies from slow to a vortex.
2. You can also use the vertical funnel wire to create a hands-free non-stop vertical vortex funnel and a slow horizontal spin together. Touch the top of the globe to stabilize the spin.
3. Or you can even use just the ring by itself to shape the field. And again, you can touch the top of the globe to stabilize a fast spin.
Do you want another experiment?
You can also use a larger plasma globe to counteract the oscillating field of a 3" globe for a stabilized spin.
This is the easiest way to make a 3" vortex. This method has created a vortex that lasted for over 13 minutes., The vortex outlasted the available memory on the camera before the camera shut off.
We kept a stable vortex going longer than the 13 minute 22 second video, and you can too!
Once the smaller globe is acting correctly (tightened filaments trying to rotate) you hold the remote grounding wire and the grounding strap at the same time until the vortex forms.
The field from 6" plasma globe can also induce a vortex a hands-free vertical funnel in a 3" Plasma Spinner when placed near a larger plasma globe.
You just need to put a larger plasma globe near each a 3" globe and watch the filaments react in the 3" globe to fine tune your placement.
Note: A larger globe does not need a Plasma Spinner™ in order to counteract the oscillating field of a 3" globe. Another 6 inch globe needs to be used to stabilize a 6 inch globe using the same method. Plasma globes not included.
1. You can use the grounding strap when you touch the top of the globe for a spin around the Plasma Spinner™ ring that varies from slow to a vortex.
2. You can also use the vertical funnel wire to create a hands-free non-stop vertical vortex funnel and a slow horizontal spin together. Touch the top of the globe to stabilize the spin.
3. Or you can even use just the ring by itself to shape the field. And again, you can touch the top of the globe to stabilize a fast spin.
Do you want another experiment?
You can also use a larger plasma globe to counteract the oscillating field of a 3" globe for a stabilized spin.
This is the easiest way to make a 3" vortex. This method has created a vortex that lasted for over 13 minutes., The vortex outlasted the available memory on the camera before the camera shut off.
We kept a stable vortex going longer than the 13 minute 22 second video, and you can too!
Once the smaller globe is acting correctly (tightened filaments trying to rotate) you hold the remote grounding wire and the grounding strap at the same time until the vortex forms.
The field from 6" plasma globe can also induce a vortex a hands-free vertical funnel in a 3" Plasma Spinner when placed near a larger plasma globe.
You just need to put a larger plasma globe near each a 3" globe and watch the filaments react in the 3" globe to fine tune your placement.
Note: A larger globe does not need a Plasma Spinner™ in order to counteract the oscillating field of a 3" globe. Another 6 inch globe needs to be used to stabilize a 6 inch globe using the same method. Plasma globes not included.
Great for the coffee table
This is a vertical funnel on top of a slow horizontal spin running hands-free non-stop.
great for the physics Labroratory
An unaided top spin next to a 6 inch globe.Just turn around for a second and these two will start trouble together! The 3 inch Plasma Spinner™ is making a hands-free vertical funnel all on its own.
Core Forces at Play Electromagnetic Coupling Nonreciprocal Field Interactions Field Shaping & Boundary Effects Fluid-Like Plasma Behavior Attempted Field Synchronization Ambient EM Noise / Resonance Effects Emergent Dynamics Observed in the "On Its Own" Moment Autonomous Field Resonance EM Feedback Loop Activation Threshold Crossing into Motion
Additional Observed Effects Filament Locking Field Saturation Unexpected Charge Behavior
Core Forces at Play Electromagnetic Coupling Nonreciprocal Field Interactions Field Shaping & Boundary Effects Fluid-Like Plasma Behavior Attempted Field Synchronization Ambient EM Noise / Resonance Effects Emergent Dynamics Observed in the "On Its Own" Moment Autonomous Field Resonance EM Feedback Loop Activation Threshold Crossing into Motion
Additional Observed Effects Filament Locking Field Saturation Unexpected Charge Behavior
