Patent No. US10219199 (titled "Mobile device mode enablement responsive to a proximity criterion") on Nov 1, 2017. The application was issued on Feb 26, 2019.
’199 is related to the field of adaptive mobile device configuration and proximity-based service enablement. Specifically, it addresses the technical challenge of dynamically activating specialized device functions—such as electronic wallets or health monitoring—only when a mobile terminal is in the immediate vicinity of a relevant physical entity or location, thereby reducing the rigidity of static device configurations.
The underlying idea behind ’199 is to decouple a device's primary wide-area connectivity from its localized, context-aware functions by using a dual-interface approach. The system recognizes that a smartphone can simultaneously maintain a standard cellular connection while using a separate, short-range protocol to interact with the physical environment. By triggering specific software modes based on a combination of proximity detection, temporal data, and physiological inputs, the device transforms its utility based on the user's immediate surroundings.
The claims of ’199 focus on a smartphone that manages two distinct air interfaces: a first interface using unlicensed frequencies for short-range interaction with an entity, and a second interface using licensed frequencies for wide-area network services. The invention specifically requires that the short-range link is established only when a proximity condition is met, and the subsequent exchange of information is further gated by a physiological parameter of the user, operating entirely independently of the cellular service provider.
In practice, the system functions by monitoring for specific beacons or signal strengths that indicate the user is near a target entity, such as a point-of-sale terminal or a medical monitoring station. Once this proximity is confirmed, the smartphone activates a specialized communication mode—for instance, a secure transaction mode—over a protocol like WiFi or a similar short-range link. This activation is not just spatial but contextual, potentially requiring a specific heart rate or blood pressure reading to authorize the data exchange, ensuring the function is both relevant and secure.
This approach differentiates itself from prior art by removing the network provider from the local interaction loop. Traditional mobile services often rely on the carrier network to facilitate location-based triggers; however, this invention allows the smartphone to act as an autonomous agent that negotiates local links directly with entities. By utilizing dual air interfaces and multi-factor triggers like physiological state and time-of-day, the device achieves a level of environmental adaptivity that prevents unnecessary battery drain and accidental function activation.
In the late 2000s when ’199 was filed, mobile devices were typically implemented as static functional tools where software capabilities remained constant regardless of the user's physical environment. At a time when systems commonly relied on manual user configuration to toggle specific hardware modes or application states, the integration of real-time environmental awareness into device logic was limited by processing overhead and the lack of standardized proximity-based triggers. During this era, hardware and software constraints made the seamless, autonomous transition between specialized operational modes—such as switching from a general-purpose handset to a secure financial instrument—non-trivial due to the reliance on persistent, wide-area network connectivity rather than localized, context-aware sensing.
The disclosed invention addresses the technical problem of functional rigidity in mobile terminals by introducing an architectural shift toward adaptive mode enablement. By integrating a proximity-based processing logic that evaluates location, temporal data, or localized signal detection against pre-stored criteria, the system enables a dynamic transition of device capabilities. This structural solution achieves the technical effect of automatically activating or deactivating specific communication protocols and application functions, such as secure transaction modes or localized air interface protocols, only when specific environmental conditions are met. This capability enables a more efficient use of device resources and enhances security by restricting sensitive functions to relevant geographic or situational contexts, thereby overcoming the constraints of fixed-configuration mobile architectures.
The patent contains 19 total claims, with claims 1 and 10 serving as the independent claims. These independent claims focus on a smartphone system and method for managing dual wireless communications, specifically establishing a short-range link with an entity using unlicensed frequencies based on proximity and physiological parameters while simultaneously receiving network services over a separate licensed air interface. The dependent claims serve to further define technical specifications such as non-overlapping time intervals, specific signal modulation protocols like OFDM or TDD, proximity detection methods based on signal strength, and practical applications involving retail transactions or integrated smartphone sensors.
Definitions of key terms used in the patent claims.
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