Smart Lighting System ISO/IEC/IEEE 21451 Compatible

Higuera, Jorge; Hertog, Wim; Perálvarez, M.; Polo, J. L.; Carreras, Josep

doi:10.1109/jsen.2015.2390262

Cited by 46 publications

(15 citation statements)

References 17 publications

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“…This architecture has PV array, buck converter, sensor module, actuator module, and IEEE21451.0 27,28 compatible MPPT controller called transducer interface module (TIM). Communication between the smart transducer and the centralized controller is achieved by executing transducer access commands of TIM.…”

Section: Teds Formation For Fault Diagnosismentioning

confidence: 99%

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Fault identification and isolation for components of photovoltaic energy storage system based on IEEE21451 standard

Jaibalaganesh

Jayaraman

Raman

et al. 2020

Int J Numerical Modelling

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Major faults arise in power converters mainly due to faulty MOSFET switches, diode and electrolyte capacitors. Converter with fault tolerant circuit improves the overall reliability of DC‐DC converter. We develop a self‐test configuration that identifies the faults in analog to digital converter (ADC), DC to DC converter and battery. IEEE 21451 standard‐based interface is implemented to develop a knowledge‐based smart controller. The centralized controller is performed to execute the maximum power point tracking (MPPT). Photovoltaic (PV) energy storage system is constructing to prove how the converter’s sensing, processing, and actuation capabilities in actual time may allow effective fault identification. The simulation result of the proposed method is executed in the MATLAB/Simulink working platform. The experimental results are implemented with field‐programmable gate array of Spartan‐6 Xilinx. The simulation as well as experimental result shows different fault identification in PV with energy storage system. Battery is provided through 12 V/4.5 Ah battery. The simulation and experimental results make ensure that the proposed method reveals its proficiency. It shows that the received results may fault identification at less than the period of one switching usually by 100 ms with suggested method.

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Section: Teds Formation For Fault Diagnosismentioning

confidence: 99%

“…This architecture has PV array, buck converter, sensor module, actuator module, and IEEE21451.0 27,28 Figure 2. The TIM module is implemented with memory, registers, TEDS storage, and controller to execute IEEE 21451.0 services, input/output (I/O) signal processing and MPPT operation with fault diagnosis.…”

Section: Proposed System Architecturementioning

confidence: 99%

Fault identification and isolation for components of photovoltaic energy storage system based on IEEE21451 standard

Jaibalaganesh

Jayaraman

Raman

et al. 2020

Int J Numerical Modelling

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“…In such a system, the temperature sensor embedded TEDS into a DS2433 Electrically Erasable Programmable Read-Only Memory (EEPROM), while the NCAP was implemented in two separate modules: an 8-bit microcontroller and a LabView application. In [ 33 ], the implementation of a ZigBee network for lighting control based on IEEE 21451, where the TIMs are the lighting end-nodes and the required coordinators of the Zigbee network are connected via USB to a PC (both comprising the NCAP), is presented. The proposed architecture uses REpresentational State Transfer (REST) web services and a MATLAB program that runs on a PC to decode the received metadata.…”

Section: Related Workmentioning

confidence: 99%

A Plug-and-Play Human-Centered Virtual TEDS Architecture for the Web of Things

Rojas

Fernández‐Caramés

Fraga‐Lamas

et al. 2018

Sensors

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This article presents a Virtual Transducer Electronic Data Sheet (VTEDS)-based framework for the development of intelligent sensor nodes with plug-and-play capabilities in order to contribute to the evolution of the Internet of Things (IoT) toward the Web of Things (WoT). It makes use of new lightweight protocols that allow sensors to self-describe, auto-calibrate, and auto-register. Such protocols enable the development of novel IoT solutions while guaranteeing low latency, low power consumption, and the required Quality of Service (QoS). Thanks to the developed human-centered tools, it is possible to configure and modify dynamically IoT device firmware, managing the active transducers and their communication protocols in an easy and intuitive way, without requiring any prior programming knowledge. In order to evaluate the performance of the system, it was tested when using Bluetooth Low Energy (BLE) and Ethernet-based smart sensors in different scenarios. Specifically, user experience was quantified empirically (i.e., how fast the system shows collected data to a user was measured). The obtained results show that the proposed VTED architecture is very fast, with some smart sensors (located in Europe) able to self-register and self-configure in a remote cloud (in South America) in less than 3 s and to display data to remote users in less than 2 s.

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“…ISO/IEC/IEEE21451 series standards received great attention from the beginning and having been developing since then [21,22]. At present these standards have been used in many fields including intelligent transportation, health management, internet of things, and ecological agriculture [23][24][25][26][27][28][29][30]. The reason why the authors choose ISO/IEC/IEEE21451 series standards in this paper is that they separate the sensor network and sensor function design and thus achieve interchangeability, interoperability, and scalability.…”

Section: International Journal Of Distributed Sensor Networkmentioning

confidence: 99%

An ISO/IEC/IEEE21451 Smart Sensor Network for Distributed Measurement of Pavement Structural Temperature

Cai

Yuan

Cui

et al. 2016

International Journal of Distributed Sensor Networks

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An ISO/IEC/IEEE21451 smart sensor network for distributed measurement of pavement structural temperature (PST) is proposed in this paper. The proposed network architecture is a star network based on GPRS communication, adapting to the measurement environment of PST. The proposed network node consists of autonomous power supply system, network capable application processor (NCAP), and smart transducer interface module (STIM). The design of hardware and software is based on ISO/IEC/IEEE21451-1 and ISO/IEC/IEEE21451-2 standards. A human-computer interaction website is designed based on B/S threelayer architecture. Users having access rights can access the PST data using a browser connected to the internet. The proposed system has been used in the experimental research of the PST distribution of asphalt and cement pavement. The experimental results demonstrate that the proposed smart sensor network can adapt to the distributed fieldwork and unattended measurement environment of PST. The validity and reliability of the system have also been verified.

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Smart Lighting System ISO/IEC/IEEE 21451 Compatible

Cited by 46 publications

References 17 publications

Fault identification and isolation for components of photovoltaic energy storage system based on IEEE21451 standard

Fault identification and isolation for components of photovoltaic energy storage system based on IEEE21451 standard

A Plug-and-Play Human-Centered Virtual TEDS Architecture for the Web of Things

An ISO/IEC/IEEE21451 Smart Sensor Network for Distributed Measurement of Pavement Structural Temperature

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