IoT Sensor Network Dynamic Data Transmission Control

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Solution Overview

Problem

Traditional IoT environments face inefficiencies due to the transmission of large amounts of repetitive data from numerous sensors, which increases resource consumption and processing burdens on aggregators.

Innovation Solution

A system of peer devices that compare locally measured data with neighboring devices' data and adjust sampling and transmission frequencies based on correlation thresholds, reducing redundant data transmission and conserving resources.

Engineering Contradictions & Design Principles

VSEngineering Contradiction Analysis

1Measurement precision

If a large number of sensors are deployed to obtain more granular data, then measurement precision and data granularity are improved, but resource consumption and processing burden increase

Engineering Contradiction:
Improvedata granularityVSAvoidresource consumption
Core Design Contradiction:
Measurement precisionVSUse of energy by moving object

Solution Approach 1:

The patent extracts only the essential and non-redundant data from the sensor network. By comparing data from multiple sensors and identifying correlations, the system extracts only unique information for transmission to the aggregator, eliminating repetitive data while preserving measurement precision.

Inventive Principle:
Principle #2Taking out (Extraction)

Solution Approach 2:

The system dynamically changes transmission parameters based on data correlation. When sensors show high correlation, transmission frequency is reduced; when divergence is detected, transmission increases. This adaptive parameter adjustment optimizes resource consumption while maintaining data granularity.

Inventive Principle:
Principle #35Parameter changes

2Loss of information

If all sensor data is transmitted to the aggregator, then data completeness is improved, but network traffic and processing load increase

Engineering Contradiction:
Improvedata completenessVSAvoiddata volume
Core Design Contradiction:
Loss of informationVSQuantity of substance

Solution Approach 1:

The system implements feedback mechanisms where sensors compare their data with neighboring sensors and adjust their transmission behavior accordingly. This feedback loop ensures that only necessary data is transmitted, maintaining completeness while reducing volume.

Inventive Principle:
Principle #23Feedback

Solution Approach 2:

Instead of transmitting all raw sensor data, the system creates selective copies of only the unique and relevant information. Sensors identify which data points differ from their neighbors and transmit only those differences, reducing data volume while preserving completeness.

Inventive Principle:
Principle #26Copying

3Loss of time

If sensors transmit data at high frequency, then data freshness is improved, but energy consumption and network overhead increase

Engineering Contradiction:
Improvedata freshnessVSAvoidenergy consumption
Core Design Contradiction:
Loss of timeVSLoss of energy

Solution Approach 1:

The system makes transmission frequency dynamic rather than static. Transmission rate adjusts based on real-time conditions: high frequency when data changes significantly or correlations break, low frequency when data is stable and highly correlated with neighbors, optimizing both freshness and energy usage.

Inventive Principle:
Principle #15Dynamics

Solution Approach 2:

Sensors perform periodic correlation checks with neighboring sensors and adjust transmission accordingly. This periodic assessment allows the system to maintain data freshness when needed while conserving energy during stable periods, creating an efficient rhythm of measurement and transmission.

Inventive Principle:
Principle #19Periodic action

Data Source

PatentUS12267389B2Methods and apparatus to dynamically control devices based on distributed data
Publication Date: 2025.04.01 INTEL CORP
  • US12267389B2 patent drawing
  • US12267389B2 patent drawing
  • US12267389B2 patent drawing

AI summary

Methods, apparatus, systems and articles of manufacture to dynamically control devices based on distributed data are disclosed. An example apparatus includes a comparator to compare a first measurement measured by a first peer device to a second measurement, the second measurement being measured locally by the apparatus; and an operation adjuster to, when the comparison satisfies a threshold, adjust a measurement protocol of the first peer device.