Tapered Alignment Mechanism for Sensorless Component Assembly

The patent replaces the sensor-based mechanical detection system with a purely mechanical correction system. The tapered portions on both the first and second components mechanically indicate positional shifts through their geometric interaction during assembly, eliminating the need for electronic sensors and their associated fragility and cost.

The tapered portions act as mechanical intermediaries that transfer positional shift information from the component interfaces to the operators or correction mechanisms. The geometry of the tapers provides a visual and tactile indication of misalignment without requiring direct sensor contact with the chamfered portions.

The patent eliminates electronic sensors, signal processing circuits, and control systems by using the inherent geometry of the tapered portions to provide mechanical feedback. This substitution dramatically simplifies the assembly apparatus while maintaining positional shift detection capability.

The tapered portions on the components themselves provide the detection function without requiring external sensing equipment. The geometric features serve their primary structural purpose while simultaneously indicating positional shifts, eliminating the need for separate detection systems.

The patent employs asymmetric tapered portions with specific angle configurations that guide the components into proper alignment. The non-symmetric geometry of the tapers creates a self-correcting mechanism that naturally guides misaligned components into their correct positional relationship during the assembly process.

The tapered portions utilize curved surface geometry rather than flat or angular features. This curvature allows for smooth, progressive correction of positional shifts as the components are brought together, enabling gradual self-alignment without sudden impacts or binding.