Device for Applying Algorithmic Afferent Modulation and Method of Use

• US 20120046694A1
• Filed: 08/23/2010
• Published: 02/23/2012
• Est. Priority Date: 08/23/2010
• Status: Abandoned Application

• Current Assignee: Edward W. Miller
• Original Assignee: Edward W. Miller
• Inventors: Miller, Edward W.
• Application Number:
  US12/861,763
• Publication Number:
  US 20120046694A1
• Time in Patent Office: Days
• US Class Current: 606/239
• CPC Class Codes: A61H 1/008 Apparatus for applying pressure or blows almost perpendicular to the body or limb axis, e.g. chiropractic devices for repositioning vertebrae, correcting deformation
• CPC Class Codes: A61H 2201/0173 Means for preventing injuries
• CPC Class Codes: A61H 2201/1664 linear
• CPC Class Codes: A61H 2201/5007 computer controlled
• CPC Class Codes: A61H 2201/5041 control is restricted to certain individuals

Abstract

Disclosed is a chiropractic instrument capable of achieving the benefits of algorithmic pre-stretch, power-stretch, and recoil and release in reciprocating therapy to human tissue. In particular, that application teaches a plunging-probing technique wherein a barrage of power-stretch impulses is added to a time-modulated ramp of increasing and decreasing stretches, while offering an inherent safety-limit which prevents, upon operator error force, beyond the max given on its label, while providing meaningful tactile feedback to the practitioner. The new idea yields tethered reproducible power-stretches which only occur concurrently with achieving precise, variable, and preset levels of tissue pre-stretch force.

Claims

1. An algorithmic chiropractic instrument optimized to approximate a chiropractic afferent-work-algorithm for manipulative mechanoreceptor modulation capable of

a. producing a pre-stretch force and a power-stretch force that are directly and substantially additive;

b. the said pre-stretch force is substantially proportional to a tissue like experience over the spine and amplifies tactile, visual, and audio feedback incorporating the patient tissue release response back to the practitioner; and

c. wherein the increases of said pre-stretch by said practitioner is compensated for by a counter-balancing safety limit drop off of said power-stretch.

2. An algorithmic chiropractic instrument of claim 1 optimized to approximate a chiropractic afferent-work-algorithm for a proportional plunging-probing style of manipulative mechanoreceptor modulation and provides biofeedback to the practitioner.

3. An algorithmic chiropractic instrument of claim 1 further comprising:

a. a lever housing;

b. a reciprocating rod having an patient-contact end and mechanical stops to limit axial travel of the rod in either direction;

c. an electrically energized solenoid mounted in the said lever housing so that the said lever housing is longitudinally movable independent of said solenoid;

d. said reciprocating rod comprising of a non-magnetic governance ring, a armature, threading, and a linear bearing;

e. said reciprocating rod transits through the solenoid and is responsive to the force generated by said solenoid;

f. an inner spring disposed around the rearward end of the said reciprocating rod inside said lever housing;

g. an outer spring disposed around the rearward end of the said reciprocating rod outside said housing and compressible;

h. a restricted calibrating adjustment nut threaded through the rearward end of said reciprocating rod wherein said adjustment nut governs the human tissue pre-stretch co-dependently with said inner and outer springs; and

wherein

i. said inner spring, outer spring and nonmagnetic ring'"'"'s position in the magnetic flux field act within the range of the mechanical stops to algorithmically tether the ballistic nature of said solenoid to produce an efficient and repeatable chiropractic work algorithm which intentionally and uniquely combines substantially intended to be additive pre-stretch and power-stretch.

4. The algorithmic chiropractic instrument of claim 3 wherein the said inner spring contributes to reaching and sinking into said mechanoreceptors on a patient while said outer spring contributes to tissue stretching and re-stretching of said mechanoreceptors of said patient.

5. The algorithmic chiropractic instrument of claim 4 wherein the said chiropractic work algorithm comprises first of a compound curve attributed to the governance of both said inner and outer springs and then leading to a flattening peak attributed to said tethering of the force of said solenoid and additive pre-stretch.

6. The algorithmic chiropractic instrument of claim 5 wherein twenty-to-eighty percent of the work done in the afferent work algorithm is sustained by said pre-stretch force substantially within therapeutic level generated by said practitioner and said inner and outer springs.

7. The algorithmic chiropractic instrument of claim 5 wherein said inner spring and said outer springs are multi-rated and said inner spring is a variate tethering of said solenoid relative to percent of the work length and said outer spring provides overpowering governance of said solenoid force.

8. The algorithmic chiropractic instrument of claim 7 wherein the said work algorithm can substantially replicate a net force by balancing the coil force, inner spring force, outer spring force, cushion force, friction force, tissue force, and eddy current force.

9. The algorithmic chiropractic instrument of claim 5 wherein the tethering of the said solenoid prohibits said instrument to exceed force of designated safety limit.

10. The algorithmic chiropractic instrument of claim 5 wherein said outer spring is selected to amplify recoil force against the power stretch force created by said solenoid for the purpose of improving tactile feedback as a function of said pre-stretch force.

11. A Chiropractic instrument of claim 5 wherein the said instrument provides a power-stretch and relays biofeedback and is reproducible.

12. The algorithmic chiropractic instrument of claim 3 wherein the said inner spring has a spring-rate graduation that at a given percentage is proportional to a tissue like experience over the spine for the average person.

13. The algorithmic instrument of claim 12 wherein:

a. the said inner and outer springs, although purposely different in size or force or rate, result in equal-and-opposite force on said lever-housing;

b. said inner and outer springs respond predictably and algorithmically thus providing a continuous and physically interactive interface between practitioner-stimulus and patient-response; and

c. produces a steady bio-feedback that informs the practitioner as to the efficacy of his continual adjustments and produces a controlled stepwise therapy and an algorithmic process.

14. The algorithmic chiropractic instrument of claim 3 wherein the said nonmagnetic ring can be located anywhere within the said housing as long as it appropriately affects the magnetic flux of the said solenoid.

15. The algorithmic chiropractic instrument of claim 14 wherein the said nonmagnetic ring comprises of aluminum.

16. The algorithmic chiropractic instrument of claim 3 wherein a separate integral switch contact actuates said instrument when electrical circuit continuity is broken coincident with an adjustable pre-stretch force threshold having been achieved by the operator and a gap opens between said outer spring and electrical contacts on said lever housing.

17. The algorithmic chiropractic instrument of claim 3 wherein the said solenoid comprises of unbalanced dual coil turn-counts.

18. An algorithmic chiropractic instrument of claim 3 wherein said pre-stretch is enough to induce resonance compliance with said power-stretch

19. A chiropractic instrument of claim 3 that provides tactile measures, both direct visual and mechanical turn-number, as calibration status.

20. A chiropractic instrument of claim 3 that provides a scale-factor for calibration where each adjustment-turn of said adjustment nut proportionally adjust said pre-stretch, work range of said inner spring, work force of said inner spring, and afferent modulating force of said practitioner.

21. A chiropractic instrument of claim 3 further comprising:

a. a collar located on said reciprocating rod outside of said housing; and

b. a bumper located inside the housing capable of limiting the travel range of said reciprocal rod.

22. A method for applying a chiropractic afferent-work-algorithm comprising:

a. calibrating initial threshold for pre-stretch force on a reciprocating chiropractic instrument that would produce an amplified tactile feedback from said instrument;

b. modulated probing of a patient with said reciprocating chiropractic instrument wherein said reciprocating chiropractic instrument contains a means of creating a patient-operator biofeedback loop; and

c. triggering said reciprocating chiropractic instrument upon said patient whereby applying a systematic afferent stimulation via an algorithmic barrage of stretches wherein said barrage of stretches is an algorithmic applied force.

23. An approximate chiropractic afferent-work-algorithm created by an algorithmic chiropractic instrument comprising:

a. a smooth control work region with a slower rate of change with displacement at both the lowest and highest stretch levels, and

b. a flattening curve peak work region due to algorithmic tethering of the solenoid force.

24. An approximate chiropractic afferent-work-algorithm created by an algorithmic chiropractic instrument of claim 23 wherein twenty-to-eighty percent of the substantially additive work of said afferent work algorithm is sustained by the therapeutic biofeedback pre-stretch of said algorithmic chiropractic instrument.

25. An approximate chiropractic afferent-work-algorithm created by an algorithmic chiropractic instrument of claim 23 wherein said smooth control work force region and said flattening curve peak work region are results of algorithmic balancing of a dual spring and nonmagnetic material balance point system that balances the tissue resistance force, operator pre-stretch force, and said solenoid force.

26. An approximate chiropractic afferent-work-algorithm created by an algorithmic chiropractic instrument of claim 23 wherein the said instrument provides a reproducible power-stretch and relays biofeedback during said reproducible power-stretch.