TS-005500 — The Convex Apical Reducer for Spinal Deformity Correction is a novel surgical instrument designed to assist with posterior correction of spinal deformities. The Convex Apical Reducer applies direct force while also providing fulcrum for elongation and derotation during posterior deformity correction. The device will also include modular and adjustable options for length, angle, and derotation arm. This device provides professionals working in spinal corrections an instrument tailored for targeted convex apical manipulation.

TS-005498 — This new distraction technique uses a new surgical instrument designed to distribute distraction or compression forces across multiple pedicle screw anchors during spinal deformity correction, especially useful in posterior spinal growing rod surgery in the pediatric population. Previous techniques apply force through a single anchor, leading to potentially compromising fixation and implant failure. This new technique provides deformity correction and distraction via appropriately sized spacers that will sit on the rod and fit in between tulip heads. This technique will be most useful in deformity correction via concave distraction, particularly in growing rod insertion.

TS-005497 — This device for scoliosis correction is a pedicle screw-band combination with dynamic polyethylene-terephthalate bands for curve correction and control, especially useful in gaining apical control in early onset scoliosis at the time of Growing rod implantation. The new Pedicle Screw Band Device includes a modular head containing the eyelet and band, band crimp/lock device, and apical control in setting of traditional growing rods. This new device exists to combine the dynamic utility of bands with the spinal fixation of screws.

TS-005495 — A new innovation made to address patients with severe spinal deformities whether they’re a patient in hospital, long term care, or at home. This redesigned cranial device is made with novel halo gravity, dynamic bail, and pin tip designs. The new design offers improved head-center rotation and enhanced bony in growth and stability to individuals with severe spinal deformities.

TS-003679 — The IP is an innovative approach to the preoperative treatment of severe spinal deformities, particularly in medically complex children. Traditionally, halo gravity traction (HGT) has been employed as a preoperative tool, involving hospital admission for the duration of treatment. However, for certain patients, especially those who are too young or medically complex, spinal surgery with instrumentation presents significant risks and challenges. The program offers two innovative pathways: Long-Term HGT: For patients deemed unsuitable candidates for immediate surgery due to medical complexity or unique deformities, a long-term halo gravity traction pathway is proposed. This involves applying the halo, utilizing gravity traction, and postponing definitive surgery to a later date, which would allow for optimization of spinal flexibility. Patients undergo a temporary hospital stay followed by discharge to home with the halo device (with the possibility of surgery considered at a later stage). At-Home HGT: Targeting a different subgroup of patients who are medically fit for spinal instrumentation surgery, the at-home HGT program enables patients to receive halo traction treatment at home instead of an extended hospital stay. After a short-term hospitalization, patients spend the remainder of their treatment period at home with the halo device. This allows for a more comfortable and cost-effective alternative to prolonged hospitalization. Currently in the conceptual stage, the program holds significant potential for transforming the treatment landscape for severe spinal deformities, providing safer, more patient-centric alternatives to traditional approaches.

TS-003678 — The IP is a novel approach to the preoperative treatment of severe spinal deformities, particularly in younger patients. Traditionally, halo gravity traction involves the application of a halo device, which requires hospital admission and fixation in the cranium. However, some patients, namely children, may face challenges with anesthesia or have families who prefer noninvasive treatment options. The IP offers a solution by enabling families to apply traction therapy at home without the need for cranial fixation. The device comprises a torso vest with shoulder straps and an optional head support attachment for children without head control. By securing the patient to a frame, gravity traction is applied to the torso, effectively addressing spinal deformities. Its noninvasive nature eliminates the risks associated with anesthesia and cranial fixation, and it offers the flexibility of home-based treatment, reducing the need for hospitalization and improving patient comfort.

TS-002957 — Available 3D spine models do not optimize properties to simulate real-life bones, ligaments, tendons, viscoelasticity, or resistance that is present in a patient. Spine models are used by both surgeons and researchers for surgical planning, simulation, training, research and medical device development. By optimizing 3D printing materials, NCH inventors can produce patient-specific spine models that replicate the viscoelastic properties of the spine for a more accurate rendition. In addition to precise surgical planning, another benefit of utilizing viscoelastic accurate models is further medical device innovation to optimize surgical outcomes.