The core principles of spinal health maintenance are to strengthen the core muscles, lower back muscles, and shoulder and neck muscles around the spine—these muscles act as the natural protection for the spine. Meanwhile, it is essential to relax tense muscles and improve the physiological curvature of the spine. Choose low-impact exercises with controllable movements that avoid blind bending and twisting of the spine. Steer clear of strenuous exercises involving heavy load, high jumping, and rapid waist twisting.

Spinal curvature braces (back braces) are the primary non-surgical treatment option for patients with moderate scoliosis and immature skeletal development. Their core function is to apply pressure to the convex side of the spinal curve, guiding the spine to grow in the correct direction during bone growth, thereby slowing or preventing the worsening of the curvature angle and avoiding surgery.

3D-scanned insoles, also known as digitally customized insoles, utilize 3D scanning technology to acquire precise morphological and biomechanical data of a user's foot. This data is then analyzed and designed using software, and finally manufactured as personalized orthotic insoles via 3D printing or CNC milling. It is rapidly expanding from traditional rehabilitation medical devices into the broader consumer sports, health, and everyday wear sectors.

The knee brace industry is evolving from simple medical assistive devices and sports accessories into specialized, intelligent, and everyday health and wellness consumer products. The market opportunity is enormous, but competition is also intensifying. The key to success lies in deeply understanding the specific pain points of the target users, focusing on truly effective product solutions, and establishing a matching professional brand image and communication style.

The foot scanner and orthotic insole industry is experiencing a golden age of technology-driven growth. The keys to success lie in: 1. Accurate data as a foundation (relying on scanners). 2. Biomechanical principles as guidance (relying on skilled professionals). 3. Personalized manufacturing as a means (relying on CAD/CAM and 3D printing). 4. Solving real-world problems for users and improving their quality of life as the ultimate goal.

The core value of a medical orthosis is that it's more than just a simple support device; it's a professional medical solution that integrates multiple functions. We can break down its multifunctionality into the following aspects:

The medical orthotic devices/braces industry is an interdisciplinary field that integrates medicine, material science, biomechanics, and digital technology, and is undergoing rapid technological innovation and market expansion.

The key differences between load-free orthoses and conventional orthoses lie in their core function and design objectives. Simply put: Conventional orthoses primarily limit movement, provide support, and stabilize, but the body's weight is still borne by the injured part. The core design goal of load-free orthoses is to completely or partially remove the body's weight and pressure from the injured part, allowing it to fully rest and heal. Below is a detailed comparison from several perspectives: