If the speakers are correctly isolated, suspended, then the larger transients that produce energy storage in the cabinets, aught to deform the isolation device through a broad frequency range.
Correctly implemented the high frequencies aught to clean up as does lower frequencies, the cabinet swells and contracts as it will, but relative to the substrate, the goal is to have it’s center of gravity to remain as motionless as possible relative to the substrate.
When correct implementation of zero stiffness on loudspeakers is administered, there is no question of the superiority of this engineering practice on the voicing of the loudspeaker.
Please go ahead and try it, you may just realise a significant bump in performance for what is relatively one of the cheapest upgrades possible.
In correctly isolating using compression springs, (obviously not an issue if hanging from springs), the center of gravity can without a great deal of force, be moved across and outside the base. Short squat sub woofers are much less prone to being knocked over and damaged than speakers where the center of gravity is higher over a narrow base.
The springs themselves, under compression should also have a centralized load bearing low relative to it’s base, unless constrained as in the spring array mentioned above. I generalise that the diameter aught to be close to the final load height of a compression spring for the sake of stability, in this particular use.
The more rigid the substrate, the higher percentage of energies will deform the isolation device, such as a spring. I choose springs because of their broad range of isolation, relatively inexpensive, and easily acquired.
Correct spring rates and geometry are not hard to find, as springs are the most commonly used broad range isolation devices used worldwide.
Correctly implemented the high frequencies aught to clean up as does lower frequencies, the cabinet swells and contracts as it will, but relative to the substrate, the goal is to have it’s center of gravity to remain as motionless as possible relative to the substrate.
When correct implementation of zero stiffness on loudspeakers is administered, there is no question of the superiority of this engineering practice on the voicing of the loudspeaker.
Please go ahead and try it, you may just realise a significant bump in performance for what is relatively one of the cheapest upgrades possible.
In correctly isolating using compression springs, (obviously not an issue if hanging from springs), the center of gravity can without a great deal of force, be moved across and outside the base. Short squat sub woofers are much less prone to being knocked over and damaged than speakers where the center of gravity is higher over a narrow base.
The springs themselves, under compression should also have a centralized load bearing low relative to it’s base, unless constrained as in the spring array mentioned above. I generalise that the diameter aught to be close to the final load height of a compression spring for the sake of stability, in this particular use.
The more rigid the substrate, the higher percentage of energies will deform the isolation device, such as a spring. I choose springs because of their broad range of isolation, relatively inexpensive, and easily acquired.
Correct spring rates and geometry are not hard to find, as springs are the most commonly used broad range isolation devices used worldwide.