Machine-To-Machine/Machine-Type Communication Service TRIZ Cases

A unified user interface manages marketing data settings across multiple IoT devices and services through a centralized marketing data manager module.

Segmenting cells into exclusion and inclusion sets reduces signaling overhead in 5G IoT networks while maintaining necessary measurement accuracy.

A node determines M2M application parameters using protocol configuration options to transmit IPv6 address information.

Terminal devices autonomously select restricted frequency bands using a hashing function applied to their unique identifiers.

A base station adapts random access response repetition levels based on detected preamble transmissions to optimize resource usage.

A base station estimates machine type communication device counts to adjust access probabilities and resource allocation dynamically.

Sub-Physical Resource Block segmentation optimizes uplink data channel resource allocation, resolving spectral efficiency losses from excessive bandwidth usage.

A two-step random access process exchanges msgA and msgB to transmit user data directly during initial access.

Frame structures with adjustable pulse bandwidth resolve coverage and throughput contradictions by dynamically allocating sub-frame lengths.

Configuration information governs carrier selection for random access, distributing load across anchor and non-anchor carriers.

A mobility management network element directs low data usage user equipment information to a machine type control server.

Home network MTC-IWF entities route triggering requests directly to visitor network entities, minimizing signaling traffic volume in the home network.

A terminal device adjusts random access repetition levels via its MAC layer based on transmission attempts.

Segmented paging and coverage-based random access response scheduling reduce resource overhead while maintaining reliability in extreme coverage scenarios.

Dynamic resource allocation for sidelink communications resolves interference and complexity by coordinating inter-user equipment scheduling.

Conditional reporting mechanisms filter machine-type communication data, preventing network congestion from uncontrolled simultaneous transmissions.

A method allocates system bandwidth indication information to machine type communication terminals for configuring uplink and downlink resources.

A wireless device transmits Msg3 quality reports with repetition counts and aggregation levels to resolve NB-IoT anchor carrier measurement limits.

Base station configures distinct measurement bandwidths for machine type communication cells to optimize user equipment detection accuracy.

An enhanced random access sequence method optimizes Physical Random Access Channel configuration for machine type communication terminals.

A user equipment transmits a timing parameter to a base station for uplink scheduling.

Base station identifies terminal type via preamble sequence to allocate appropriate processing bandwidth, reducing collision between MTC and ordinary terminals.

Mobile network merges discovery resource configuration into existing control data transmissions for user equipment.

Segmenting RA-RNTI calculation by coverage level prevents overlapping response windows, reducing contention probability for low complexity devices.

A paging message carries channel identification information to guide radio terminals in selecting a specific frequency channel for random access.

A base station schedules parallel physical downlink shared channel transmissions to indicate random access response positions.

Segmenting MPDCCH control messages from PDSCH paging data reduces signaling overhead and prolongs battery life for low-cost machine type communication devices.

Adaptable message formats allow mobile stations to selectively communicate relevant radio access capabilities.

A wireless communication system dynamically allocates reserved resources to support diverse transmission types.

Access node adjusts random access response repetition levels based on success ratios to optimize physical resource handling.

Transceivers signal delay tolerance to prioritize machine-to-machine traffic, preventing network congestion during peak usage periods.

Network nodes acquire device signal processing capability to schedule time-frequency resources and determine communication intervals.

Access network analyzes sub-band detection capabilities and transmits spectral maps, enabling terminals to select frequencies that minimize interference.

Selective threshold-based reporting reduces signaling overhead and processing load while maintaining accurate resource allocation data.

A terminal device manages time-frequency resources by acquiring a resource for one service and transmitting data for another.

A base station determines angle information for cellular and device-to-device users to assign radio resources based on spatial separation.

Pre-configured random access resources reduce signaling overhead and base station load for low-capability devices.

A wireless communication receiver selects one transmitter from multiple nodes based on statistical conditions to reduce resource occupation.

A virtual carrier provides a narrow band control channel shared by full and reduced capability devices.

Wireless devices transmit unique cluster signatures to access allocated radio resources efficiently.

A terminal control unit configures distinct downlink and uplink bandwidth parts based on system information to support reduced capability devices.

Assigns unicast addresses with specific time durations to subscriber stations in wireless networks.