Multi-Planar Resistance Training Apparatus for Muscle Imbalance Correction
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Solution Overview
Problem
Existing exercise equipment and methodologies focus on power, strength, endurance, stability, and balance but often reinforce asymmetrical motion limitations by emphasizing dominant planes of motion, leading to underdevelopment of weaker planes and a risk of injury due to large load increments.
Innovation Solution
The Core Restore Training System apparatus, comprising a Core Cube, Mechanical Muscles, and Body Hook Gear, provides direct lines of force in three-dimensional orientations with constant and consistent resistance, allowing for micro-progressive loading to address muscle imbalances and range of motion limitations, ensuring optimal muscle contraction and adaptation.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Strength
If existing exercise equipment emphasizes dominant planes of motion to improve power and strength, then muscular adaptation is achieved, but asymmetrical motion limitations are reinforced and weaker planes of motion are underdeveloped
Solution Approach 1:
The apparatus transitions from traditional single-plane resistance to multi-planar resistance by positioning resistance members in different spatial orientations (anterior, posterior, lateral, medial) around the user's body, enabling simultaneous training across multiple anatomical planes of motion
Solution Approach 2:
The resistance training apparatus is designed to provide resistance in multiple directions and planes simultaneously through a single integrated system, allowing one piece of equipment to address all major muscle groups and movement patterns rather than requiring separate equipment for each plane
2Productivity
If large increments in weight load are used to improve strength, then muscular adaptation occurs faster, but the risk of over-stressing the muscular system and injury increases
Solution Approach 1:
The apparatus enables continuous parameter adjustment of resistance load through an adjustable resistance mechanism that allows incremental changes in tension force, permitting progressive overload with small load increments rather than large discrete jumps, thereby reducing injury risk while maintaining adaptation rate
Solution Approach 2:
The resistance system transitions from static fixed weights to dynamic adjustable resistance that can be modified during exercise sessions, allowing real-time adaptation of load based on individual performance capacity and recovery status
3Length of moving object
If existing techniques focus on concentric movement and muscle lengthening to improve flexibility, then range of motion increases, but optimal muscle contraction and eccentric control are underdeveloped
Solution Approach 1:
The apparatus provides resistance force that opposes the direction of movement, creating controlled eccentric loading when the user moves against the resistance force, thereby simultaneously developing both concentric strength and eccentric control while maintaining full range of motion
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
This system enables precise muscle development, balance, tone, stability, and recovery by providing targeted force directions and adjustable resistance increments, minimizing the risk of injury and allowing for gradual adaptation of muscle fibers, thus promoting safer and more effective muscle training.
Implementation Method 1
at least one Mechanical Muscle which comprises a torsion spring that allows for a rewind of a cord without the use of friction plates, thus providing a constant load over the useable range
Data Source
AI summary
Apparatuses and methods for motion and muscle training are disclosed. An apparatus includes a first retractor device, a second retractor device and a body gear unit for engaging a human. The body gear unit is attached to the first retractor device and the second retractor device. The first retractor device and the second retractor device each provide a constant non-variable load and constant resistance in opposite directions. A method includes attaching a body gear unit to a body, attaching first and second retractor devices to the body gear unit, and performing at least one movement using the body gear unit. The at least one movement is performed in a direction that is opposite to a direction of resistance of the first retractor device. A direction of resistance of the second retractor device is opposite to the direction of resistance of the first retractor device.