We are excited to announce that the Connecticut State Patent of the Month for June 2026 has been awarded to a revolutionary advancement in bioelectronic medicine and orthopedic recovery. The patent, titled Implantable bone growth stimulator (Patent Number: 12623073), represents a major leap forward in clinical bone healing and non-invasive medical device charging. This prestigious recognition is given monthly to outstanding innovations that showcase technical ingenuity and offer profound practical benefits to healthcare systems and patient outcomes.
The patented system is officially assigned to Ortho Dynamics LLC. While a specific corporate website could not be verified for the company through public registries, their pioneering technological footprint is clear. This system merges advanced antenna engineering with sub-surface electrical stimulation hardware to deliver continuous, battery-free energy directly to targeted bone tissue to accelerate healing.
Why the Invention is So Innovative
Traditional implantable bone growth stimulators are heavily restricted by their power delivery mechanisms. Many rely on integrated chemical batteries, which suffer from a finite operating lifespan and ultimately require risky surgical revision procedures to replace once depleted. Other existing wireless alternatives depend on tightly aligned near-field inductive coupling, requiring patients to wear bulky external coils close to the skin, which severely restricts mobility and daily comfort. This patent completely circumvents these obstacles by integrating a specialized antenna designed to harvest far-field electromagnetic signals from a transmitter located anywhere from one meter up to 80 feet away.
The core innovation lies in the use of a high-efficiency supercapacitor embedded within the device controller to store the captured far-field radio frequency energy. Operating within a high-frequency band between 800 megahertz and 300 gigahertz, the antenna effectively collects ambient or directed electromagnetic waves, where the electric and magnetic field vectors are perpendicular. By utilizing a supercapacitor rather than a conventional battery, the system ensures rapid energy replenishment and an almost infinite cycle life. This configuration allows the internal anode and cathode to deliver safe, therapeutic electrical stimulation directly to the bone surface completely autonomously, granting the patient unhindered mobility while ensuring a continuous healing environment.
Winning Connecticut’s Patent of the Month for June 2026
The selection committee chose this invention as Connecticut’s top patent for June 2026 due to its immense potential to transform orthopedic treatment for complex fractures, non-unions, and spinal fusions. Failed bone consolidation represents a major clinical challenge that imposes a severe physical and financial burden on patients. By delivering a completely internal, maintenance-free stimulator that functions seamlessly in the background of daily life, this device dramatically improves patient compliance and clinical success rates without introducing the long-term complications of battery degradation.
Furthermore, this development highlights Connecticut’s growing influence as a hub for cutting-edge medical technology and bioengineering. By successfully scaling down advanced far-field RF energy harvesting components into a biocompatible implant, the patent sets a brilliant benchmark for future wireless medical infrastructure, making it a highly deserving recipient of the state’s monthly honor.
U.S. R&D Tax Credit Eligibility for Practical Applications
To successfully claim the United States Research and Development tax credit under Internal Revenue Code Section 41, the practical deployment and development of this technology must satisfy a strict four-part test. First, the project must demonstrate a permitted purpose, which is achieved through the technical design, manufacturing, and refinement of the miniature far-field RF harvesting antenna and the associated supercapacitor power management circuitry. Second, the engineering team must resolve significant technical uncertainties regarding optimal antenna geometry, impedance matching, and wave propagation to guarantee reliable power transfer through layers of human tissue at distances up to 80 feet. Third, the development process must incorporate a systematic process of experimentation, which includes running electromagnetic field simulations, evaluating different supercapacitor charging profiles, and conducting bench testing on physical prototypes to measure electrical output at the bone interface. Finally, the underlying research must be fundamentally technological in nature, relying directly on principles of electrical engineering, material science, and biology. Qualified expenses, such as the wages of hardware engineers, expenditures on advanced prototyping materials, and the costs of specialized laboratory testing, can be synthesized to significantly offset the financial burden of commercializing this medical breakthrough.
