The disclosure generally relates to methods for maintaining and improving the contractile capability of one or more target muscles in a subject.
Conventional muscle treatment is based on the diagnoses and treatment of muscle pain and weakness in hopes of limiting pain and improving an individual's ability to exercise and physically perform. Where pain is the issue, pain medications and anti-inflammatories are prescribed and in some cases injected into a problematic area. Conventional techniques also attempt to directly lengthen or change a muscle via stretching, heating, kneading and/or foam rolling a target muscle. These techniques are dictated by identification and treatment on the specific muscle or muscle location of the pain or weakness.
Techniques have also been developed on the principle that human movement and exercise is fundamental to health and that loss of muscle contractile efficiency may be demonstrated as a loss of motion and a decrease in physical performance. Identification and treatment of muscle pain and weakness is a persistent problem in need of additional solutions.
The present disclosure and embodiments described herein are directed toward providing novel solutions to improving and maintaining an individual's muscle contractile abilities.
The present invention is directed toward overcoming one or more of the problems discussed above.
The described embodiments will be readily understood by the following detailed description in conjunction with the accompanying drawings.
Embodiments described herein provide methods, systems and kits for raising the tolerance and/or stability of one or more muscles in a subject. In some embodiments the method and systems are designed to enhance the contractile efficiency of some or all of a subject's muscles. Surprisingly, methods and systems described herein provide for a significant improvement over conventional therapeutic or exercise techniques.
Embodiments herein also include methods and systems for treating one or more target muscles in a subject based on administration of a treatment to the target muscle while that muscle is in an activated state.
The disclosure also provides kits for facilitating the effects of exercise on a problematic muscle or muscles in a subject in need thereof.
Embodiments herein characterize 43 primary movement patterns (herein “patterns”) that account for movement in the human body. The classification of the 43 patterns is based on each pattern's function. Functional requirements of the 43 patterns are directed by the central and peripheral nervous systems. Each pattern includes a primary muscle and one or more secondary muscles.
In more detail, stress application, using the methods, systems and kits described herein, initially causes a target muscle to exceed its current set-point level, thereby creating inhibition in that target muscle. Once inhibition has been achieved, the target muscle is ready for transition to an activated state, also referred to herein as the muscle being ‘locked in.’
A stress can be re-applied to the target muscle after the muscle has been activated which will respond in the absence or with a lower state of inhibition to the applied stress. This process of stressing and treating a target muscle allows an increase in the target muscle's set-point towards the target muscles current maximum tolerance and stability level. The establishment of a new set point for the target muscle ultimately widens the physiological operating window of the target muscle. These methods, systems and kits described herein may be repeated over a period of time to incrementally increase a target muscle's set point (see
In addition and surprisingly, where alternative treatment, beyond treatment to increase a muscle's set point is necessitated, for example, where a target muscle is in need of repair due to pain, tears, sprains, loss, strain, aches, etc., the alternative treatment is greatly facilitated by application when the target muscle is in a “locked in” state. For example, facilitating the utility of a biologic in a target muscle is facilitated by implanting the biologic into the target muscle in order to activate that muscle pattern by the methods, systems and kits of the present invention. For purposes herein a biologic agent or biologic is any substance used in the prevention or treatment of a muscle pain, injury or disease state. Illustrative biologic agents include: autologous and non-autologous stem cells, anti-inflammatories including anti-rheumatic drugs, immunosuppressants like Methotrexate and azathioprine, anti-cytokines to reduce inflammation like anti-Tumor Necrosis Factor (anti-TNF), medications to repair muscle damage like steroids, platelet-rich plasma or bone-marrow aspirate, chemotherapeutics for treatment of cancer residing in the muscle, for example Alemtuzumab, and the like.
Methods for Activating a Target Muscle:
Generally, methods disclosed herein provide for the application of stress, and thereby treatment, in a pre-determined priority based on the hierarchy of muscles between each pattern, i.e., a muscle's macro-pattern. In addition, this hierarchy of muscles extends within the patterns themselves thereby establishing a micro-pattern wherein each muscle within a pattern has a hierarchy including one primary muscle and one or more secondary muscles. The patterns are ordered bilaterally from left to right (left first, then right).
Embodiments herein provide that each of the identified 43 movement patterns have one primary muscle (a subject has 43 primary muscles) and a corresponding number of secondary muscles. As such, the hierarchy between a subject's muscles described herein can be described between muscle patterns, between primary muscles, as well as within a pattern itself (one primary and a number of secondary muscles). A macro-pattern is the overall hierarchy between all 43 movement patterns, and a micro-pattern is the hierarchy between muscles within any one muscle pattern.
The hierarchy of muscles within the human body provides a unexpected window from and during which one or more of a subject's muscles, within a pattern, is more effectively treated to either enhance that muscle groups set point or provide alternative treatments meant to facilitate healing of an injury to that muscle. The hierarchy can also be utilized to methodically enhance the set point of individual patterns including some or all of a subject's muscles and thereby facilitate the subject's musculature in general or facilitate maintenance of a subject's musculature against aging and health defects.
As such, each macro- and micro-pattern has been mapped herein to identify the order within which each muscle is first placed under stress or is tested and then, after weakness is identified, treated. In this manner each muscle within the body, targeted or not, can be treated in a way to maximize the effectiveness of the treatment.
In some embodiments the hierarchy established and mapped in the present disclosure is between two or more patterns, i.e., between any two or more primary muscles. The hierarchy provides a stress and treatment hierarchy for any two, three, four, five, six, seven, . . . forty one, forty two, forty three primary muscles in the absence of a pattern's secondary muscles. As such, priority is mapped to start the process at a first primary muscle and extend through the macro-pattern of all the primary muscles (43). Testing and treatment of a subject's macro-pattern then includes bilaterally challenging each pattern via stress application (L then R), a prioritized primary muscle to identify a bilateral weakness. When a primary muscle requires treatment (see below) the treatment is applied. Regardless, once bilateral testing and treatment (if necessary) is concluded on the first or most prioritized primary muscle the health care professional moves onto the next highest prioritized muscle group, testing for bilateral weakness. This process holds true for the hierarchy of the 43 primary muscles (see Table 1). In some embodiments all 43 primary muscles are tested and treated in the order as disclosed in Table 1, from 1-43. In other embodiments, a primary muscle is tested and treated in an order where the primary muscle having a lower group number is always tested and treated prior to a next primary muscle, for example from 1, 7, to 9. In this way a health care professional may wish to treat a primary muscle of group 22 and deem it appropriate to start the process at the primary muscle of group 3, then 4-9, then 15-22, for example. At no time would the process start with a priority number higher than the target group primary number, e.g., 27, 25 then 22, for example. However, a health care professional may deem it necessary or advantageous to continue treatment beyond the target number, for example continue on from 22 to treat 27-31 and 40-43 (in order). In some instances where the subject has been treated via the methods described herein or is an elite athlete, fewer primary muscles may need to be tested and treated. It is also envisioned that the health care professional start the process and move bilaterally from group 1 to group 22 (in this example).
In another embodiment, priority is mapped to start the bilateral process at a first muscle in the first muscle group, i.e., the group's left primary muscle, and extend through that group's secondary muscle hierarchy, the micro-pattern. In some embodiments, the process is then continued to the first muscle, primary muscle, in the next prioritized pattern. Embodiments herein include establishing the hierarchy between two or more of the 43 patterns, three or more of the 43 total patterns, four or more of the 43 total patterns (4/43) and so on (5/43), (6/43), (7/43), (8/43), (9/43), (10/43) . . . (42/43), (43/43). In this way, the hierarchy has been identified for and between all 43 patterns (primary and secondary muscles) providing a pattern that establishes enhanced treatment for all muscles within all 43 patterns. In some subjects, the application of a specific stress (MSAS), muscle weakness identification and treatment (AMC&S) is performed on all muscles within all 43 patterns in the disclosed herein hierarchy. However, any combination can be achieved as long as the processes herein follow the hierarchy established and described herein, i.e., started with a pattern's primary muscle and, where appropriate, that pattern's secondary muscles, in a pattern prioritized above the next to be treated pattern's primary, and where appropriate, secondary muscles. As noted for the macro-pattern, the micro-patterns are established bilaterally. So, the hierarchy begins with the left primary muscle and moves to the pattern's right primary muscle, then to the left highest priority left muscle and so on.
As such, a first muscle (left, primary) in a pattern having the highest priority of the 43 patterns (referred to herein as pattern 1) has been identified all the way through to the last muscle (a right, secondary muscle) in the lowest priority pattern (referred to herein as muscle pattern 43). Typically and unexpectedly maximum benefit is achieved for any one muscle group when stress or testing is applied to the associated muscles within the macro- and micro-patterns of patterns and more beneficially when stress or testing is applied to the muscle group after the muscles in one or more higher priority pattern is first stressed according to embodiments of the present disclosure. Further, the criteria of maximum benefit for a muscle group is achieved when stress and testing is applied to the muscle in the heretical order of two or more higher priority patterns prior to the muscle pattern within which the target muscle resides, more beneficially three or more patterns, etc. until all of the muscles within all of the higher priority patterns have been activated or locked-in. So for example, if a secondary muscle in pattern 7 is the target muscle (e.g., injured), the muscles within the first 6 patterns and then within pattern 7 would first be stressed or tested prior to activation (bilaterally).
Note also that the disclosure herein also contemplates a process where, using the example above, the first 6 pattern's primary and secondary muscles are treated in order, bilaterally, followed by the 7 group's primary muscle and then hierarchy of secondary muscles within pattern 7, in order, including the target muscle.
Stress application in accordance with the present disclosure is established for each pattern based on the muscle pattern's primary function. In general, and in one embodiment, stress application to a muscle is accomplished by a Muscle Specific Applied Stress (MSAS) (Table 2). Other like specific stress methodologies can be utilized herein. MSAS is applied by a health care professional. A health care professional for purposes herein refers to licensed and non-licensed providers and includes: medical doctors, doctors of osteopathy, doctors of chiropractic, doctors of physical therapy, massage therapists, nurses, trainers, strength and conditioning coaches and the like.
The inventor's philosophy recognizes that passive range of motion limitations correlate with muscle weaknesses. The inventor also recognizes that the assessment of passive range of motion can expose inhibition. So, if an inhibited muscle cannot contract efficiently, then it cannot effectively shorten. This is also demonstrated by the opposite muscles inability to effectively lengthen. Many times, even though there are limitations in range of motion, the muscles associated with that loss of range of motion will still test strong when performing the AMC&S test. This is a representation that the set point has not been exceeded, but the limitation in motion is still a representation of vulnerability or potential weakness.
MSAS is a passive stress that is applied in a controlled environment that is designed to expose these potential vulnerabilities. MSAS shortens target muscle's that relate to the limitation in the range of motion. It is evidenced that by passively shortening a target muscle that has a lower set point, the opposite muscle(s) which display increased tension will be lengthened. This passive stretch, takes the joint into a range of motion that the body has been avoiding. In doing so, the passive stretch exposes muscle weaknesses that may not have shown up previously through the AMC&S testing. Each of the 43 patterns has a specific MSAS that is specific to the function of the associated primary and secondary muscles in that pattern (see Table 2). Therefore, if a limitation in ROM exists that is specific to the function of 1 of the 43 patterns, those weaknesses can be exposed through the application of that patterns MSAS. This provides an environment where those muscles can be treated and the associated set point can be raised. By repeating the MSAS, like a vaccination, the set point can be continually raised until the point that the associated muscles no longer go weak in response to the MSAS (see
A MSAS must be applied in a consistent and specific manner for each muscle group. Note that applied stress in accordance with MSAS should not lock the body in to a less specific stress as this will actually lower the target muscle's stress point. Further, application of MSAS pursuant to embodiments herein should not be changed midstream as this will provide for a decrease in a muscle's set point and finally the health care professional should always consider all the muscles in the muscle pattern (micro-pattern) and should show as weak relative to the non-specific stress(es).
In order to determine whether a muscle is showing weakness based on MSAS, several assessment techniques can be used. In one embodiment, Active Muscle Contract and Sustain Test (AMC&S) is utilized to identify a target muscle's weakness.
Typically a AMC&S is a muscle testing technique that is specific to embodiments described herein. AMC&S involves a specific force application of a specific magnitude and rate of force application, set-up and delivered by a health care specialist (see Example 2). The health care specialist assesses the target muscle's ability to react to and meet that force. AMC&S is not a manual muscle “break” test or manual muscle test used as an indication of the body's response to a chemical substance, nor a change in its energetic field, nor a positional post isometric relaxation technique.
In accordance with the present disclosure, AMC&S are initiated by the health care practitioner placing the subject in the proper testing position. The subject must relax and then hold the muscle against an applied stress with maximal effort. The health care practitioner takes care not to force the target muscle in multiple directions and should only use passive motion in the plane that matches the applied testing force (for example, adduction on posterior tibialis). It is also important that the subject utilize unconscious control as much as possible and avoid consciously interfering with the muscle's reaction to the applied stress through compensatory motion. Note that the subject's testing position is dictated by his or hers available ROM, therefore the testing positions will be different with each subject. This may require the health care professional to challenge all testing positions in a pattern (Example 2).
In a second embodiment herein, prior to the assessment a Passive Comparative Assessment of Mobility (CAM) is performed. CAM is a range of motion assessment that is specific to embodiments disclosed herein. CAM is a specific force application leading to the measurement of active or passive limb motion from a designated start position/posture, through a designated plane and direction, to the end of the limb motion. The measurement is then compared to the mirror image limb motion for the limb on the opposite side of the body. CAM is not a joint range of motion examination performed to evaluate passive tissue stability, joint surface pathology, ligamentous integrity, etc. CAM is typically used on a first visit to a health care professional prior to the AMC&S. However, CAM is optional for all other embodiments as described herein.
Once a muscle is shown to be properly stressed and in need of treatment, embodiments herein contemplate use of Digital Force Application To Muscle Attachment Technique (DFAMAT) or Positional Isoangular Contraction (PIC) technique (Table 3).
Typically a treatment in PIC is an activation technique specific to embodiments described herein. PIC involves a specific limb position/orientation (based on the macro and micro patterns shown and discussed herein) and direction of motion generated by the subject, into a barrier to that motion, set-up and maintained by a health care specialist. The health care specialist may use their hands and body to hold/guide limb orientation/positions and provide the barriers to motion during the isoangular contraction. PIC is not a muscle energy technique, strain/counter-strain technique or a post isometric relation technique.
Typically a treatment through DFAMAT is also an activation technique specific to embodiments described herein. DFAMAT involves a specific force application to a target muscle using the health care professional's fingers. The health care professional applies direct pressure perpendicular to a target muscle's attachment (tendons, aponeuroses) using the tips of the fingers instituting motion creating subtle tension on the attachment tissues, followed with motion lines that are perpendicular to each other, maintaining the tension for a duration of 1 to 4 seconds per site, and more typically 1 to 2 seconds per site, releasing and then re-initiating the process, moving along the width/length of the target muscle attachment. DFAMAT is not a soft tissue evaluation nor a manipulation to release trigger points, adhesions, Active Release Technique, move body fluids to and from tissue sites, etc.
Note that DFAMAT is not used to evaluate and interpret the state of soft tissues, nor to create a relaxation response for the target muscle. The premise of DFAMAT is that it stimulates sensory receptors that in turn increase motor neuronal pool activation to the target muscle associated with the attachment. This represents the opposite effect that most, if not all, massage techniques are attempting to achieve as an outcome (relaxation).
In accordance with the present disclosure and DFAMAT, a treatment is applied to the target muscle via palpation to the relevant bone where the target muscle is attached. Identification of the target muscle attachment point requires specific palpation such that as micro-pattern of muscles is being tested the then re-tested. Other treatment procedures for increasing a target muscle's set point include isometric and isotonic contractions and the like. Treatments may also include the injection (e.g. intramuscular, intradermal, intravenous) or ingestion of an appropriate biologic.
Biologics contemplated for use herein on an activated or locked-in muscle include: autologous and non-autologous stem cells, anti-inflammatories including anti-rheumatic drugs, immunosuppressants like Methotrexate and azathioprine, anti-cytokines to reduce inflammation like anti-Tumor Necrosis Factor (anti-TNF), medications to repair muscle damage like steroids, platelet-rich plasma or bone-marrow aspirate, chemotherapeutics for treatment of cancer residing in the muscle, for example melanoma (Alemtuzumab, for example), and the like.
While the invention has been particularly shown and described with reference to a number of embodiments, it would be understood by those skilled in the art that changes in the form and details may be made to the various embodiments disclosed herein without departing from the spirit and scope of the invention and that the various embodiments disclosed herein are not intended to act as limitations on the scope of the claims.
The following hierarchy has been established for the 43 movement patterns as classified for purposes herein. This hierarchy from pattern 1 to 43 represents the macro-pattern:
Hierarchy within a Movement Pattern (Micro-Pattern) (Bilateral, Left First and then Right):
Pattern 1 (Trunk Rotation):
Transverse Abdominis—Lower Division
Pattern 2 (Trunk Flexion):
Psoas Minor
Pattern 3 (Hip Flexion)
Psoas Major: Lumbar Division
Pattern 4 (Hip Rotation)
Obturator Externus
Pattern 5 (Spinal Sidebend)
Longissimus Thoracis
Pattern 6 (Downward Rotation of the Scapula)
Levator Scapula: Superior Division
Pattern 7 (Humeral External Rotation)
Infraspinatus: Superior Division
Pattern 8 (Spinal Extension)
Intertransversarii Lumborum
Pattern 9 (Hip Extension)
Gluteus Maximus: Iliac Division
Pattern 10 (Humeral Extension and Adduction)
Latissimus Dorsi: Iliac Division
Pattern 11 (Humeral Internal Rotation)
Subscapularis: Superior Division
Pattern 12 (Elbow Extension)
Triceps Brachii: Medial Division
Pattern 13 (Upward Rotation of the Scapula)
Upper Trapezius: Clavicular Division
Pattern 14 (Humeral Abduction)
Supraspinatus: Fossa Division
Pattern 15 (Protraction of the Scapula)
Pectoralis Minor: Inferior Division
Pattern 16 (Horizontal Adduction)
Pectoralis Major: Sternal Division
Pattern 17 (Elbow Flexion)
Brachialis
Pattern 18 (Hip Adduction)
Adductor Magnus: Oblique Division
Pattern 19 (Hip Abduction)
Gluteus Medius: Anterior Division
Pattern 20 (Knee Extension)
Rectus Femoris: Straight Division
Pattern 21 (Knee Flexion)
Semitendinosus
Pattern 22 (Supination)
Posterior Tibialis: Fibular Division
Pattern 23 (Plantarflexion)
Medial Soleus
Pattern 24 (1st Ray Dorsiflexion)
Anterior Tibialis: Tibial Division
Pattern 25 (Pronation)
Peroneus Brevis: Lateral Division
Pattern 26 (Dorsiflexion)
Peroneus Tertius: Lateral Division
Pattern 27 (1st Ray Plantarflexion)
Peroneus Longus: Metatarsal Division
Pattern 28 (Big Toe Extension)
Extensor Hallucis Longus: Fibular Division
Pattern 29 (Toe Extension)
Extensor Digitorum Longus: Lateral Division
Pattern 30 (Big Toe Flexion)
Flexor Hallucis Longus: Fibular Division
Pattern 31 (Toe Flexion)
Flexor Digitorum Longus: Lateral Division
Pattern 32 (Cervical Flexion)
Longus Capitis
Pattern 33 (Cervical Rotation)
Multifidus Cervicis: Interior Fibers
Pattern 34 (Cervical Extension)
Semispinalis Capitis
Pattern 35 (Cervical Sidebend)
Posterior Scalene
Pattern 36 (Wrist Extension with Abduction)
Extensor Carpi Radialis Longus: Abductor Division
Pattern 37 (Wrist Flexion with Abduction)
Flexor Carpi Radialis Longus: Abductor Division
Pattern 38 (Forearm Supination)
Anconeus: Ulnar Division
Pattern 39 (Forearm Pronation)
Pronator Teres: Humeral Division
Pattern 40 (Extension and Abduction of the Thumb)
Extensor Pollicis Longus: Ulnar Division
Pattern 41 (Flexion and Abduction of the Thumb)
Flexor Pollicis Longus
Pattern 42 (Finger Extension)
Extensor Digitorum: Medial Division
Pattern 43 (Finger Flexion)
Flexor Digitorum Profundus: Medial Division
1. Micro-Order 1, AMC&S Test
Transverse Abdominis Lower Fibers
Tester Position:
Client Position:
Applied Force:
Internal Oblique: Anterior
Tester Position:
Client Position:
Applied Force:
External Oblique: Anterior AMC&S Test
Tester Position:
Client Position:
Applied Force:
Semispinalis Thoracis
Tester Position:
Client Position:
Applied Force:
Transverse Abdominis: Upper
Tester Position:
Client Position:
Applied Force:
Sternalis
Tester Position:
Client Position:
Applied Force:
Rectus Abdominis: 4th Lateral
Tester Position:
Client Position:
Applied Force:
Rectus Abdominis: 4th Medial
Tester Position:
Client Position:
Applied Force:
2. Micro-Order 2, AMC&S Test
Psoas Minor
Tester Position:
Client Position:
Applied Force:
Pyramidalis
Tester Position:
Client Position:
Applied Force:
Rectus Abdominis: 1st
Tester Position:
Client Position:
Applied Force:
Rectus Abdominis: 2nd
Tester Position:
Client Position:
Applied Force:
Rectus Abdominis: 3rd
Tester Position:
Client Position:
Applied Force:
3. Micro Order 3, AMC&S Test
Psoas Major: Lumbar Fibers
Tester Position:
Client Position:
Applied Force:
Psoas Major: Thoracic Fibers
Tester Position:
Client Position:
Applied Force:
Psoas Major: Diaphragmatic
Tester Position:
Client Position:
Applied Force:
Iliacus
Tester Position:
Client Position:
Applied Force:
Iliacus Minor
Tester Position:
Client Position:
Applied Force:
Tensor Fascia Latae: Posterior Fibers
Tester Position:
Client Position:
Applied Force:
Tensor Fascia Latae Anterior Fibers
Tester Position:
Client Position:
Applied Force:
4. Micro Order 4, AMC&S Test
Obturator Externus
Tester Position:
Client Position:
Applied Force:
Quadratus Femoris
Tester Position:
Client Position:
Applied Force:
Piriformis
Tester Position:
Client Position:
Applied Force:
Gemellus Inferior
Tester Position:
Client Position:
Applied Force:
Gemellus Superior
Tester Position:
Client Position:
Applied Force:
Adductor Minimus
Tester Position:
Client Position:
Applied Force:
Obturator Internus
Tester Position:
Client Position:
Applied Force:
5. Micro Order 5, AMC&S Test
Longissimus Thoracis
Tester Position:
Client Position:
Applied Force:
Longissimus Lumborum
Tester Position:
Client Position:
Applied Force:
Internal Oblique: Lateral
Tester Position:
Client Position:
Applied Force:
External Oblique: Lateral
Tester Position:
Client Position:
Applied Force:
Iliocostalis Thoracis
Tester Position:
Client Position:
Applied Force:
Iliocostalis Lumborum
Tester Position:
Client Position:
Applied Force:
Multifidus: Thoraco-Lumbar
Tester Position:
Client Position:
Applied Force:
Multifidus: Lumbo-Sacral
Tester Position:
Client Position:
Applied Force:
Quadratus Lumborum Spinal Fibers
Tester Position:
Client Position:
Applied Force:
Serratus Posterior: Inferior
Tester Position:
Client Position:
Applied Force:
Serratus Posterior: Superior
Tester Position:
Client Position:
Applied Force:
Quadratus Lumborum Costal Fibers
Tester Position:
Client Position:
Applied Force:
6. Micro Order 6, AMC&S Test
Levator Scapula Superior Division
Tester Position:
Client Position:
Applied Force:
Levator Scapula Inferior Division
Tester Position:
Client Position:
Applied Force:
Rhomboid Minor
Tester Position:
Client Position:
Applied Force:
Rhomboid Major
Tester Position:
Client Position:
Applied Force:
7. Micro Order 7, AMC&S Test
Infraspinatus Superior Fibers
Tester Position:
Client Position:
Applied Force:
Infraspinatus Superior-Middle Fibers
Tester Position:
Client Position:
Applied Force:
Infraspinatus Inferior-Middle Fibers
Tester Position:
Client Position:
Applied Force:
Infraspinatus Inferior Fibers
Tester Position:
Client Position:
Applied Force:
Teres Minor
Tester Position:
Client Position:
Applied Force:
8. Micro Order 8, AMC&S Test
Intertransversarii
Tester Position:
Client Position:
Applied Force:
Interspinalis Lumborum
Tester Position:
Client Position:
Applied Force:
Spinalis Thoracis
Tester Position:
Client Position:
Applied Force:
Spinalis Lumborum
Tester Position:
Client Position:
Applied Force:
Rotatores Thoracis
Tester Position:
Client Position:
Applied Force:
Rotatores Lumborum
Tester Position:
Client Position:
Applied Force:
9. Micro Order 9, AMC&S Test
Gluteus Maximus: Iliac
Tester Position:
Client Position:
Applied Force:
Gluteus Maximus: Sacral
Tester Position:
Client Position:
Applied Force:
Gluteus Maximus Coccygeal
Tester Position:
Client Position:
Applied Force:
10. Micro Order 10, AMC&S Test
Latissimus Dorsi Iliac Fibers
Tester Position:
Client Position:
Applied Force:
Latissimus Dorsi Lumbar Fibers
Tester Position:
Client Position:
Applied Force:
Latissimus Dorsi Thoracic Fibers
Tester Position:
Client Position:
Applied Force:
Teres Major Inferior Fibers
Tester Position:
Client Position:
Applied Force:
Teres Major Superior Fibers
Tester Position:
Client Position:
Applied Force:
Tricep Long Head
Tester Position:
Client Position:
Applied Force:
11. Micro Order 11, AMC&S Test
Sub Scapularis Superior Fibers
Tester Position:
Client Position:
Applied Force:
Sub Scapularis Superior-Middle Fibers
Tester Position:
Client Position:
Applied Force:
Sub Scapularis Inferior Fibers
Tester Position:
Client Position:
Applied Force:
12. Micro Order 12, AMC&S Test
Tricep Medial Fibers
Tester Position:
Client Position:
Applied Force:
Tricep Lateral Head
Tester Position:
Client Position:
Applied Force:
Articularis Cubiti
Tester Position:
Client Position:
Applied Force:
13. Micro Order 13, AMC&S Test
Upper Trapezius Clavicular Fibers
Tester Position:
Client Position:
Applied Force:
Upper Trapezius Scapular Fibers
Tester Position:
Client Position:
Applied Force:
Middle Trapezius
Tester Position:
Client Position:
Applied Force:
Lower Trapezius
Tester Position:
Client Position:
Applied Force:
Serratus Anterior Upper Fibers
Tester Position:
Client Position:
Applied Force:
Serratus Anterior Lower Fibers
Tester Position:
Client Position:
Applied Force:
Subclavius Lateral Fibers
Tester Position:
Client Position:
Applied Force:
Subclavius Medial Fibers
Tester Position:
Client Position:
Applied Force:
14. Micro Order 14, AMC&S Test
Supraspinatus Fossa Division
Tester Position:
Client Position:
Applied Force:
Supraspinatus Spinal Division
Tester Position:
Client Position:
Applied Force:
Posterior Deltoid Medial Fibers
Tester Position:
Client Position:
Applied Force:
Posterior Deltoid Lateral Fibers
Tester Position:
Client Position:
Applied Force:
Middle Deltoid Posterior Fibers
Tester Position:
Client Position:
Applied Force:
Middle Deltoid Anterior Fibers
Tester Position:
Client Position:
Applied Force:
Anterior Deltoid Scapular Fibers
Tester Position:
Client Position:
Applied Force:
Anterior Deltoid Clavicular Fibers
Tester Position:
Client Position:
Applied Force:
15. Micro Order 15, AMC&S Test
Pectoralis Minor Inferior Division
Tester Position:
Client Position:
Applied Force:
Pectoralis Minor Superior Division
Tester Position:
Client Position:
Applied Force:
16. Micro Order 16, AMC&S Test
Pectoralis Major Sternal Fibers
Tester Position:
Client Position:
Applied Force:
Pectoralis Major Clavicular Fibers
Tester Position:
Client Position:
Applied Force:
Pectoralis Major Costal Division
Tester Position:
Client Position:
Applied Force:
Biceps Brachii Long Head
Tester Position:
Client Position:
Applied Force:
Biceps Brachii Short Head
Tester Position:
Client Position:
Applied Force:
Coracobrachialis Superior Fibers
Tester Position:
Client Position:
Applied Force:
Coracobrachialis Inferior Fibers
Tester Position:
Client Position:
Applied Force:
17. Micro Order 17, AMC&S Test
Brachialis
Tester Position:
Client Position:
Applied Force:
Brachioradialis Superior Division
Tester Position:
Client Position:
Applied Force:
Brachioradialis Inferior Division
Tester Position:
Client Position:
Applied Force:
18. Micro Order 18, AMC&S Test
Adductor Magnus Oblique Fibers
Tester Position:
Client Position:
Applied Force:
Adductor Magnus Vertical Fibers
Tester Position:
Client Position:
Applied Force:
Adductor Longus Superior
Tester Position:
Client Position:
Applied Force:
Adductor Longus Inferior
Tester Position:
Client Position:
Applied Force:
Adductor Brevis
Tester Position:
Client Position:
Applied Force:
Pectineus
Tester Position:
Client Position:
Applied Force:
Gracilis
Tester Position:
Client Position:
Applied Force:
19. Micro Order 19, AMC&S Test
Gluteus Medius Anterior Fibers
Tester Position:
Client Position:
Applied Force:
Gluteus Medius Posterior Fibers
Tester Position:
Client Position:
Applied Force:
Gluteus Medius Middle Fibers
Tester Position:
Client Position:
Applied Force:
Gluteus Minimus Anterior Fibers
Tester Position:
Client Position:
Applied Force:
Gluteus Minimus Lateral Fibers
Tester Position:
Client Position:
Applied Force:
20. Micro Order 20, AMC&S Test
Rectus Femoris Straight Head
Tester Position:
Client Position:
Applied Force:
Rectus Femoris Reflected Head
Tester Position:
Client Position:
Applied Force:
Vastus Intermedius: Medial
Tester Position:
Client Position:
Applied Force:
Vastus Intermedius: Lateral
Tester Position:
Client Position:
Applied Force:
Vastus Medialis: Upper
Tester Position:
Client Position:
Applied Force:
Vastus Medialis: Middle
Tester Position:
Client Position:
Applied Force:
Vastus Medialis: Lower
Tester Position:
Client Position:
Applied Force:
Vastus Lateralis: Upper
Tester Position:
Client Position:
Applied Force:
Vastus Lateralis: Middle
Tester Position:
Client Position:
Applied Force:
Vastus Lateralis: Lower
Tester Position:
Client Position:
Applied Force:
Articularis Genu
Tester Position:
Client Position:
Applied Force:
21. Micro Order 21, AMC&S Test
Semitendinosus
Tester Position:
Client Position:
Applied Force:
Semimembranosus Lateral
Tester Position:
Client Position:
Applied Force:
Semimembranosus Medial
Tester Position:
Client Position:
Applied Force:
Bicep Femoris: Short head
Tester Position:
Client Position:
Applied Force:
Bicep Femoris: Long head Fibular
Tester Position:
Client Position:
Applied Force:
Bicep Femoris: Long head Tibial
Tester Position:
Client Position:
Applied Force:
Sartorius
Tester Position:
Client Position:
Applied Force:
Popliteus
Tester Position:
Client Position:
Applied Force:
22. Micro Order 22, AMC&S Test
Posterior Tibialis Fibular Division
Client Position:
Tester Position:
Applied Force:
Posterior Tibialis Tibial Division
Client Position:
Tester Position:
Applied Force:
23. Micro Order 23, AMC&S Test
Medial Soleus
Client Position:
Tester Position:
Applied Force:
Lateral Soleus
Client Position:
Tester Position:
Applied Force:
Lateral Gastroc
Client Position:
Tester Position:
Applied Force:
Medial Gastroc
Client Position:
Tester Position:
Applied Force:
Plantaris
Client Position:
Tester Position:
Applied Force:
24. Micro Order 24, AMC&S Test
Anterior Tibialis Tibial Division
Client Position:
Tester Position:
Applied Force:
Anterior Tibialis Interosseous Division
Client Position:
Tester Position:
Applied Force:
25. Micro Order 25, AMC&S Test
PERONEUS BREVIS Lateral division
Client Position:
Tester Position:
Applied Force:
Peroneus Brevis Posterior Division
Client Position:
Tester Position:
Applied Force:
26. Micro Order 26, AMC&S Test
Peroneus Tertius Lateral Division
Client Position:
Tester Position:
Applied Force:
Peroneus Tertius Anterior Division
Client Position:
Tester Position:
Applied Force:
27. Micro Order 27, AMC&S Test
Peroneus Longus Metatarsal Division
Client Position:
Tester Position:
Applied Force:
Peroneus Longus Cuneiform Division
Client Position:
Tester Position:
Applied Force:
28. Micro Order 28, AMC&S Test
Extensor Hallucis Longus Fibular Division
Client Position:
Tester Position:
Applied Force:
Extensor Hallucis Longus Interosseous Division
Client Position:
Tester Position:
Applied Force:
Extensor Hallucis Brevis
Client Position:
Tester Position:
Applied Force:
29. Micro Order 29, AMC&S Test
Extensor Digitorum Longus Lateral Division
Client Position:
Tester Position:
Applied Force:
Extensor Digitorum Longus Medial Division
Client Position:
Tester Position:
Applied Force:
Extensor Digitorum Brevis
Client Position:
Tester Position:
Applied Force:
1st Dorsal Interossei
Client Position:
Tester Position:
Applied Force:
2nd Dorsal Interossei
Client Position:
Tester Position:
Applied Force:
3rd Dorsal Interossei
Client Position:
Tester Position:
Applied Force:
4th Dorsal Interossei
Client Position:
Tester Position:
Applied Force:
30. Micro Order 30, AMC&S Test
Flexor Hallucis Longus Fibular Division
Client Position:
Tester Position:
Applied Force:
Flexor Hallucis Longus Interosseous Division
Client Position:
Tester Position:
Applied Force:
Flexor Hallucis Brevis 1st Cuneiform Division
Client Position:
Tester Position:
Applied Force:
Flexor Hallucis Brevis Cuboid Division
Client Position:
Tester Position:
Applied Force:
Flexor Hallucis Brevis 3rd Cuneiform Division
Client Position:
Tester Position:
Applied Force:
Adductor Hallucis Oblique Head
Client Position:
Tester Position:
Applied Force:
Adductor Hallucis Transverse Head: Lateral Division
Client Position:
Tester Position:
Applied Force:
Adductor Hallucis Transverse Head: Lateral Division
Client Position:
Tester Position:
Applied Force:
Abductor Hallucis Longus Supinator Division
Client Position:
Tester Position:
Applied Force:
Abductor Hallucis Longus Adductor Division
Client Position:
Tester Position:
Applied Force:
31. Micro Order 31, AMC&S Test
Flexor Digitorum Longus Lateral Division
Client Position:
Tester Position:
Applied Force:
Flexor Digitorum Longus Medial Division
Client Position:
Tester Position:
Applied Force:
Flexor Digitorum BREVIS Lateral Division
Client Position:
Tester Position:
Applied Force:
Flexor Digitorum BREVIS Medial Division
Client Position:
Tester Position:
Applied Force:
Quadratus Plantae Lateral Head
Client Position:
Tester Position:
Applied Force:
Quadratus Plantae Medial Head
Client Position:
Tester Position:
Applied Force:
4th Plantar Lumbrical
Client Position:
Tester Position:
Applied Force:
3rd Plantar Lumbrical
Client Position:
Tester Position:
Applied Force:
2nd Plantar Lumbrical
Client Position:
Tester Position:
Applied Force:
1st Lumbrical
Client Position:
Tester Position:
Applied Force:
3rd Plantar Interossei
Client Position:
Tester Position:
Applied Force:
2nd plantar interossei
Client Position:
Tester Position:
Applied Force:
1st Plantar Interossei
Client Position:
Tester Position:
Applied Force:
Abductor Digiti Minimi
Client Position:
Tester Position:
Applied Force:
Flexor Digiti Minimi Brevis
Client Position:
Tester Position:
Applied Force:
32. Micro Order 32, AMC&S Test
Longus Capitis
Tester Position:
Client Position:
Applied Force:
Longus Colli: Superior Oblique Fibers
Tester Position:
Client Position:
Applied Force:
Longus Colli: Vertical Fibers
Tester Position:
Client Position:
Applied Force:
Longus Colli: Inferior Oblique Fibers
Tester Position:
Client Position:
Applied Force:
Mylohyoid
Tester Position:
Client Position:
Applied Force:
Sternohyoid
Tester Position:
Client Position:
Applied Force:
Rectus Capitis Anterior
Tester Position:
Client Position:
Applied Force:
33. Micro Order 33, AMC&S Test
Multifidus Cervicis Inferior Division
Tester Position:
Client Position:
Applied Force:
Multifidus Cervicis Superior Division
Tester Position:
Client Position:
Applied Force:
Sternocleidomastoid Sternal Fibers
Tester Position:
Client Position:
Applied Force:
Sternocleidomastoid Clavicular Fibers
Tester Position:
Client Position:
Applied Force:
Longissimus Capitis
Tester Position:
Client Position:
Applied Force:
Longissimus Cervicis
Tester Position:
Client Position:
Applied Force:
Splenius Capitis
Tester Position:
Client Position:
Applied Force:
Splenius Cervicis
Tester Position:
Client Position:
Applied Force:
Iliocostalis Cervicis
Tester Position:
Client Position:
Applied Force:
Rotatores Cervicis
Tester Position:
Client Position:
Applied Force:
Rectus Capitis Posterior Major
Tester Position:
Client Position:
Applied Force:
Obliques Capitis Inferior
Tester Position:
Client Position:
Applied Force:
34. Micro Order 34, AMC&S Test
Semispinalis Capitis
Tester Position:
Client Position:
Applied Force:
Semispinalis Cervicis
Tester Position:
Client Position:
Applied Force:
Spinalis Capitis
Tester Position:
Client Position:
Applied Force:
Spinalis Cervicis
Tester Position:
Client Position:
Applied Force:
Interspinalis Cervicis
Tester Position:
Client Position:
Applied Force:
Obliques Capitis Superior
Tester Position:
Client Position:
Applied Force:
Rectus Capitis Posterior Minor
Tester Position:
Client Position:
Applied Force:
35. Micro Order 35, AMC&S Test
Posterior Scalenes AMC&S Test
Tester Position:
Client Position:
Applied Force:
Middle Scalenes
Tester Position:
Client Position:
Applied Force:
Anterior Scalenes
Tester Position:
Client Position:
Applied Force:
Anterior Intertransversarii
Tester Position:
Client Position:
Applied Force:
Omohyoid
Tester Position:
Client Position:
Applied Force:
Rectus Capitis Lateralis
Tester Position:
Client Position:
Applied Force:
36. Micro Order 36, Muscle Test
Extensor Carpi Radialis Longus: Abductor Division
Client supine
Force:
(Force through 2nd met)
Extensor Carpi Radialis Longus: Extensor Division Muscle Test
FORCE: Wrist Flexion (Force through 2nd met)
Extensor Carpi Ulnaris: Adductor Division
(force through 5th met)
Extensor Carpi Ulnaris: Extensor Division
Extensor Carpi Radialis Brevis
(Force through 3rd met)
37. Micro Order 37, Muscle Test
Flexor Carpi Radialis: Abductor Division
FORCE: Wrist extension with adduction/ulnar deviation
(Force through 2nd met)
Flexor Carpi Radialis: Flexor Division
FORCE: Wrist extension (Force through 2nd met)
Flexor Carpi Ulnaris: Adductor Division
FORCE: Wrist extension with adduction/ulnar deviation
(Force through 5th met)
Flexor Carpi Ulnaris: Flexor Division
FORCE: Wrist extension (Force through 5th met)
Palmaris Longus
FORCE: Wrist extension
38. Micro Order 38, Muscle Test
Anconeus: Ulnar Division
Force:
Anconeus: Olecranon Division
Force:
Supinator: Olecranon Division Muscle Test
FORCE: Pronate forearm
Supinator: Ulnar Division
FORCE: Pronate forearm
39. Micro Order 39, Muscle Test
Pronator Teres: Humeral Division
FORCE: Supination of forearm
Pronator Teres: Ulnar Division
FORCE: Supination of forearm
Pronator Quadratus: Proximal Division
FORCE: Supination of forearm
Pronator Quadratus: Distal Division
FORCE: Supination of Forearm
40. Micro Order 40, Muscle Test
Extensor Pollicis Longus: Ulnar Division
FORCE: Flex distal phalanx on proximal phalanx
Extensor Pollicis Longus: Septal Division Muscle Test
FORCE: Flex distal phalanx on proximal phalanx
Extensor Pollicis Brevis: Radial Division
FORCE: Flex and adduct proximal phalanx of the thumb
Extensor Pollicis Brevis: Septal Division
FORCE: Flex and adduct proximal phalanx of the thumb
Abductor Pollicis Longus: Radial Division
FORCE: Flex and Adduct 1st metacarpal
Abductor Pollicis Longus: Ulnar Division
FORCE: Flex and Adduct 1st metacarpal
41. Micro Order 41, Muscle Test
Flexor Pollicis Longus
FORCE: Extend distal phalanx on proximal phalanx
Abductor Pollicis Brevis
FORCE: extend/adduct proximal phalanx
Flexor Pollicis Brevis
FORCE: Extend proximal phalanx away from 5th
Adductor Pollicis Oblique Head
FORCE: Extend proximal phalanx
Adductor Pollicis Transverse Head
FORCE: Extend proximal phalanx
Interoseii Pollicis
FORCE: Extend proximal phalanx
Opponens Pollicis Flexor Division
FORCE: Extend 1st metacarpal
Opponens Pollicis Abductor Division
FORCE: Adduct 1st metacarpal
42. Micro Order 42, Muscle Test
Extensor Digitorum Medial Division
FORCE: Flex base of proximal phalanx of 4th and 5th digits
Extensor Digitorum Lateral Division
FORCE: Flex base of proximal phalanx of 2nd and 3rd digits
Extensor Indicis
FORCE: Flex and abduct 2nd digit
Extensor Digiti Minimi
FORCE: Flex and abduct the proximal phalanx of the 5th digit through sagittal plane
4th Dorsal Interossei
FORCE: Adduct 4th digit toward 3rd
3rd Dorsal Interossei
FORCE: Adduct 3rd digit toward 2nd
2nd Dorsal Interossei
FORCE: Adduct 3rd digit toward 4th
1st Dorsal Interossei
FORCE: Adduct 2nd digit toward 3rd
43. Micro Order 43, Muscle Test
Flexor Digitorum Profundus Medial Division
FORCE: Extend distal phalanx of 4th and 5th digits
Flexor Digitorum Profundus Lateral Division
FORCE: Extend distal phalanx of 2nd and 3rd digits
Flexor Digitorum Superficialis: Medial Division
FORCE: Extend middle and distal phalanx of 4th and 5th digits
Flexor Digitorum Superficialis: Lateral Division
FORCE: Extend middle and distal phalanx of 2nd and 3rd digits
4th Lumbrical
3rd Lumbrical
2nd Lumbrical
1st Lumbrical
3rd Palmar Interossei
FORCE: Extend and Abduct 5th digit away from 4th
2 nd Palmar Interossei
FORCE: Extend and Abduct 4th digit away from 3rd
1st Palmar Interossei
FORCE: Extend and Abduct 2nd digit away from 3rd
Flexor Digiti Minimi
FORCE: Extend proximal phalanx of 5th digit
Abductor Digiti Minimi Flexor Division
FORCE: Extend proximal phalanx of 5th digit
Abductor Digiti Minimi Abductor Division
FORCE: Extend and adduct proximal phalanx of 5th digit
Oponens Digiti Minimi Manus Flexor Division
FORCE: Extend 5th metacarpal
Oponens Digiti Minimi Manus Abductor Division
FORCE: Extend and adduct 5th metacarpal
Palmaris Brevis
FORCE: Separate 5th metacarpal from 1st
Systems and Kits
Embodiments provided herein also include systems and kits for facilitating and enhancing the maintenance of a subject's muscle set-points.
Kits in accordance with the present disclosure include exercise instructions and corresponding exercise equipment for properly stressing (exercise) a subject's muscle using the same basic macro and micro hierarchy shown above. Kits may include an instruction sheet and figures showing the exercise order for maximum benefit for any one muscle pattern or for any two or more patterns, up to instructions for all 43 movement patterns. Optionally, appropriate exercise equipment for specific stress to a primary or secondary muscle is provided in a kit. Exercise equipment in some aspects is designed to support ACM&S.
Systems in accordance with the present disclosure include kits and memory/computing devices for keeping track and personalizing a subject's muscle contractile profile at any one time. For example, a computer that stores and updates a subject's treatment and/or exercise status based on the embodiments herein. The memory/computing device could track muscle set points (primary and secondary) based on a health care professional's input. Objective criteria could be used for input based on the health care professional assessment and overall treatment or exercise regimes developed based on a subject's status.
The following examples are provided for illustrative purposes only and are not intended to limit the scope of the invention.
This application claims priority under 35 U.S.C. 119 (e) to U.S. Provisional Patent Application Ser. No. 62/131,156, entitled “Methods, Systems and Kits for Enhanced Muscle Contractile Capabilities,” filed Mar. 10, 2015, the disclosure of which is hereby incorporated by reference in its entirety.
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International Search Report for PCT/US2016/021607 and Written Opinion dated Aug. 8, 2016, 26 pages. |
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20160262662 A1 | Sep 2016 | US |
Number | Date | Country | |
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62131156 | Mar 2015 | US |