Geolocation Pet Collar With Wired Fence Backup for Reliable Containment

The patent replaces the mechanical in-ground wiring system with a wireless signal transmission system. The collar uses a receiver to detect wireless signals from transmitters positioned along the property boundary, eliminating the need for physical wire installation while maintaining boundary definition capability. This substitution resolves the contradiction by removing installation complexity while preserving boundary precision through signal-based detection.

The patent introduces wireless signals as an intermediary between the boundary markers and the collar. Instead of direct physical contact with buried wires, the collar receives transmitted signals through air space, acting as a mediator that enables boundary detection without requiring invasive installation. This intermediary approach maintains precision while simplifying the system to non-invasive transmitter units.

The patent divides the wireless boundary system into multiple independent transmitter segments positioned along the property line. Each transmitter operates independently, creating a segmented signal field. This segmentation improves reliability by ensuring that if one transmitter fails or experiences interference, other segments continue to provide boundary detection capability, while maintaining ease of installation through modular units.

The patent implements redundant transmitter positioning and signal overlap zones as a cushioning mechanism against signal failure. By placing transmitters such that their signal fields overlap and by providing multiple transmitters along each boundary segment, the system creates a buffer that maintains reliable operation even when individual transmitters experience interference or failure, thus protecting against reliability issues while keeping the system easy to install.

The patent implements dynamic correction intensity adjustment based on the pet's distance from the boundary and response to previous corrections. The system starts with lower intensity corrections and automatically increases intensity only when necessary to achieve containment, rather than applying maximum intensity from the start. This dynamic approach maintains containment effectiveness while minimizing harmful effects by adapting the correction level to the actual situation.

The patent incorporates feedback mechanisms where the collar monitors the pet's responses to corrections and adjusts the intensity accordingly. If the pet responds appropriately to a low-intensity correction, the system maintains or reduces intensity. If the pet ignores initial corrections or attempts to cross the boundary, the system progressively increases intensity. This feedback-driven approach ensures containment effectiveness is achieved with the minimum necessary correction intensity, reducing harmful factors.

The patent replaces the hard-wired electrical power system with battery-powered transmitters and collar units. This substitution eliminates the vulnerability to power outages by using independent battery sources for each system component. The batteries provide continuous operation capability while being immune to external power grid failures, thus resolving the contradiction between continuous operation and power outage vulnerability.

The patent segments the power supply system into independent battery units for each transmitter and the collar, rather than relying on a centralized hard-wired power source. This segmentation means that power failure in one area does not affect other segments, and each unit can operate independently during power outages. The modular battery-powered architecture maintains continuous operation while eliminating the single point of failure associated with centralized electrical wiring.