Communication Buses and Protocols for Sensor Networks

Zhou, Junwei; Mason, Andrew J.

doi:10.3390/s20700244

Cited by 22 publications

(13 citation statements)

References 3 publications

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“…While considerable effort has recently been focused on development of networked sensors for operation in air [1][2][3][4][5][6][7][8][9], sensor network technology has not been developed for application to liquid Figure 1. An illustrative drawing of the aqueous sensor network.…”

Section: Introductionmentioning

confidence: 99%

Design of a Wireless Sensor Network for Long-term, In-Situ Monitoring of an Aqueous Environment

Yang

Ong

Dreschel

et al. 2002

Sensors

136

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An aqueous sensor network is described consisting of an array of sensor nodes that can be randomly distributed throughout a lake or drinking water reservoir. The data of an individual node is transmitted to the host node via acoustic waves using intermediate nodes as relays. Each node of the sensor network is a data router, and contains sensors capable of measuring environmental parameters of interest. Depending upon the required application, each sensor node can be equipped with different types of physical, biological or chemical sensors, allowing long-term, wide area, in situ multi-parameter monitoring. In this work the aqueous sensor network is described, with application to pH measurement using magnetoelastic sensors. Beyond ensuring drinking water safety, possible applications for the aqueous sensor network include advanced industrial process control, monitoring of aquatic biological communities, and monitoring of waste-stream effluents.

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Section: Introductionmentioning

confidence: 99%

Design of a Wireless Sensor Network for Long-term, In-Situ Monitoring of an Aqueous Environment

Yang

Ong

Dreschel

et al. 2002

Sensors

136

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“…Several existing serial buses, I 2 C (integrated circuit commonly referred to as "two wire interface"), and SPI (serial peripheral interface), TII (transducer independent interface) have been reviewed for different applications [33]. Bissi et al described the structure of IEEE 1451 standards multiprocessor control system and they also explained the RS232 asynchronous communication between STIM and NCAP [34], [35].…”

Section: Standard Transducer Interface Module (Stim)mentioning

confidence: 99%

Current Status of the IEEE 1451 Standard-Based Sensor Applications

et al. 2015

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Abstract-In this paper, we have discussed the sensor-based applications and what is necessary for the dissimilarities in hardware realization and algorithm. This paper presents the existing state-of-the-art of IEEE 1451 standard-based sensor applications and is mainly focused on standard transducer interface module (STIM), network capable application processor (NCAP), and transducer-independent interface (TII). They have some major factors that are regularly imperative in the development of IEEE 1451 standard-based applications, such as plug and play facility, for one or more than one STIM, communication protocols/network's, architecture, reliability, maintenance, accuracy, easy to use, cost, transducer electronic data sheet, test facility, and so on. The above concerns are also summarized by reference to research articles on STIM, NCAP, and TII. Highlighting is on the predictability of dynamic applications that concentrate on the above mentioned criteria.

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“…Ó áàãàòüîõ ñåíñîðíèõ ñèñòåìàõ âèêîðèñòî-âóºòüñÿ òàêîae àëüòåðíàòèâíà àðõ³òåêòóðà çºä-íàííÿ ³íòåëåêòóàëüíèõ ñåíñîð³â ³ ñåíñîðíèõ ìå-ðåae, ÿê³, â ñâîþ ÷åðãó, êåðóþòüñÿ ñèñòåìàìè á³ëüø âèñîêîãî ð³âíÿ [9]. Ïðè òàêîìó ï³äõîä³ êîaeíèé ñåíñîðíèé ìîäóëü ïîâèíåí ì³ñòèòè ÓÏ×Ê-1.…”

Section: àííîòàöèÿunclassified

Ieee 1451 Standard Adaptation for Frequency Output Sensors

Yurish¹

2014

SEMST

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Àíîòàö³ÿÀÄÀÏÒÀÖ²ß ÑÒÀÍÄÀÐÒÓ IEEE 1451 ÄËß ×ÀÑÒÎÒÍÈÕ ÑÅÍÑÎÐ²Â Ñ. Þ. ÞðèøÂ ñòàòò³ îïèñàí³ ðîçøèðåííÿ ³ àäàïòàö³ÿ ñòàíäàðòó IEEE 1451 äëÿ ñåíñîð³â ÷àñòîòíî-÷àñîâî¿ ãðóïè. Ïîêàçàíî, ùî ïðè âèêîðèñòàíí³ îäíîãî óí³âåðñàëüíîãî êîìïîíåíòà ÓÏ×Ê-1 áóäü-ÿêèé ³ñíóþ÷èé ÷àñòîòíèé ñåíñîð ìîaeå áóòè ïåðåòâîðåíèé â ³íòåëåêòóàëü-íèé ç ìîaeëèâ³ñòþ ñàìî³äåíòèô³êàö³¿ ³ ñàìîàäàïòàö³¿. Òàêèé ï³äõ³ä äî ïðîåêòóâàííÿ IEEE 1451-ñóì³ñíèõ ñåíñîð³â äàº ³ñòîòí³ ïåðåâàãè ÿê âèðîáíèêàì, òàê ³ ñïîaeèâà÷àì. Ïðîãíîçó-ºòüñÿ çá³ëüøåííÿ ðèíêó ³íòåëåêòóàëüíèõ ñåíñîð³â íà 15-20 %.Êëþ÷îâ³ ñëîâà: ÷àñòîòí³ ñåíñîðè, ñòàíäàðò IEEE 1451, ³íòåëåêòóàëüí³ ñåíñîðè, ³íòåëåê-òóàëüí³ ïåðåòâîðþâà÷³, ïåðåòâîðþâà÷ ÷àñòîòà-êîä Abstract IEEE 1451 STANDARD ADAPTATION FOR FREQUENCY OUTPUT SENSORS S. Y. YurishAn effort to simplify the IEEE 1451 standards family extension for adding smart, plug-andplay and self-adaptation capabilities to frequency output sensors is describe in the paper. It was shown that due to the use of one universal component the universal frequency-to-digital converter (UFDC-1), any frequency output sensor can be transformed into a smart transducer compatible to the IEEE 1451 standard. This gives strong benefits to both: customer and manufacturers, increases the level of commercial adoption of the standard in industry and smart sensors market up to 15-20 %.

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Communication Buses and Protocols for Sensor Networks

Cited by 22 publications

References 3 publications

Design of a Wireless Sensor Network for Long-term, In-Situ Monitoring of an Aqueous Environment

Design of a Wireless Sensor Network for Long-term, In-Situ Monitoring of an Aqueous Environment

Current Status of the IEEE 1451 Standard-Based Sensor Applications

Ieee 1451 Standard Adaptation for Frequency Output Sensors

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