Internet of Things (IoT) is a connected network of devices that exchange data using different protocols. The application of IoT ranges from intelligent TVs and intelligent Refrigerators to smart Transportation. This research aims to provide students with hands-on training on how to develop an IoT platform that supports device management, connectivity, and data management. People tend to build interconnected devices without having a basic understanding of how the IoT platform backend function. Studying the Arm Pelion will help to understand how IoT devices operate under the hood. This past summer, Morgan State University has hosted undergraduate engineering students and high school STEM teachers to conduct IoT security research in the Cybersecurity Assurance & Policy (CAP) Center. The research project involved integrating various hardware sensor devices and real-time data monitoring using the Arm Pelion IoT development platform. Some of the student/teacher outcomes from the project include: 1) Learning about IoT Technology and security; 2) Programming an embedded system using Arm Mbed development board and IDE; 3 3) Developing a network of connected IoT devices using different protocols such as LWM2M, MQTT, CoAP; 4) Investigating the cybersecurity risks associated with the platform; and 5) Using data analysis and visualization to understand the network data and packet flow. First, the student/teacher must consider the IoT framework to understand how to address the security. The IoT framework describes the essential functions of an IoT network, breaking it down into separate layers. These layers include an application layer, middleware layer, and connectivity layer. The application layer allows the users to access the platform via a smartphone or any other dashboard. The Middleware layer represents the backend system that provides edge devices with data management, messaging, application services, and authentication. Finally, the connectivity layer includes devices that connect the user to the network, including Bluetooth or WiFi. The platform consists of several commercial IoT devices such as a smart camera, baby monitor, smart light, and other devices. We then create algorithms to classify the network data flow; to visualize the packets flow in the network and the structure of the packets data frame over time.
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Real-time image analysis in IoT-based home security system
Internet of Things (IoT) uses cloud-enabled data sharing to connect physical objects to sensors, processing software, and other technologies via the Internet. IoT allows a vast network of communication amongst these physical objects and their corresponding data. This study investigates the use of an IoT development board for real-time sensor data communication and processing, specifically images from a camera. The IoT development board and camera are programmed to capture images for object detection and analysis. Data processing is performed on board which includes the microcontroller and wireless communication with the sensor. The IoT connectivity and simulated test results to verify real-time signal communication and processing will be presented.
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- Award ID(s):
- 2044255
- PAR ID:
- 10488766
- Editor(s):
- Kehtarnavaz, Nasser; Shirvaikar, Mukul V.
- Publisher / Repository:
- SPIE
- Date Published:
- Journal Name:
- SPIE Proceedings Volume 12528, Real-Time Image Processing and Deep Learning 2023
- Volume:
- 12528
- ISBN:
- 9781510661707
- Page Range / eLocation ID:
- 10
- Subject(s) / Keyword(s):
- Internet of things IoT Arduino BeagleBone home security
- Format(s):
- Medium: X
- Location:
- Orlando, United States
- Sponsoring Org:
- National Science Foundation
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