2018
DOI: 10.4018/978-1-5225-3862-2.ch012
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Towards Odor-Sensitive Mobile Robots

Abstract: Out of all the components of a mobile robot, its sensorial system is undoubtedly among the most critical ones when operating in real environments. Until now, these sensorial systems mostly relied on range sensors (laser scanner, sonar, active triangulation) and cameras. While electronic noses have barely been employed, they can provide a complementary sensory information, vital for some applications, as with humans. This chapter analyzes the motivation of providing a robot with gas-sensing capabilities and als… Show more

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Cited by 11 publications
(14 citation statements)
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“…Furthermore, like in the case of a network of fixed enose, the calibration and drift compensation of the sensors composing the e-nose is also an important drawback to consider. In this regard, works like (De Vito, Massera, Piga, Martinotto, & Di Francia, 2008;Esposito et al, 2016) have presented different approaches to cross-calibrate different e-noses without the need to perform a tedious and costly laboratory calibration. These proposals are indeed fundamental when the MRO system is to be deployed for long times (drift and ageing), or when multiple mobile e-noses are set up simultaneously (Hasenfratz, 2015).…”
Section: Gas Classification With Mobile Robotsmentioning
confidence: 99%
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“…Furthermore, like in the case of a network of fixed enose, the calibration and drift compensation of the sensors composing the e-nose is also an important drawback to consider. In this regard, works like (De Vito, Massera, Piga, Martinotto, & Di Francia, 2008;Esposito et al, 2016) have presented different approaches to cross-calibrate different e-noses without the need to perform a tedious and costly laboratory calibration. These proposals are indeed fundamental when the MRO system is to be deployed for long times (drift and ageing), or when multiple mobile e-noses are set up simultaneously (Hasenfratz, 2015).…”
Section: Gas Classification With Mobile Robotsmentioning
confidence: 99%
“…Related to environmental monitoring applications, there are works where a gas measuring device sensing the air quality is carried by a person (Zappi, Bales, Park, Griswold, & Šimuni, 2012), a bike (Elen et al, 2013;, public transport vehicles (Hasenfratz et al, 2015) or even drones (Neumann, Bartholmai, Schiller, Wiggerich, & Manolov, 2010;Pobkrut, Eamsa-ard, & Kerdcharoen, 2016). Despite sampling the environment in motion, most of the works does not perform a classification phase to discriminate the type of gas, but rather employs an array of gas sensors with disjoint selectivity (i.e.…”
Section: Gas Classification With Mobile Robotsmentioning
confidence: 99%
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“…Proposed strategies include Braitenberg approaches [2] or algorithms based on E. coli bacteria [3], to cite some. Performance was then improved by combining chemotaxis with anemotaxis, exploiting the strong directional cue that the flow direction brings when acting under turbulent flows [4]. Proposed methods include the dung beetle or zigzag method, which involves moving upwind within the This work has been funded by the Spanish Government (project DPI2017-84827-R) and the Andalusia Government (project TEP2012-530), both with funds from the European Union (FEDER).…”
Section: Introductionmentioning
confidence: 99%
“…Yet, as reported by [8], the main drawback of these strategies arises when facing realistic, turbulent environments. Under this challenging environmental conditions, the plume is not straight and continuous, but given the time-varying nature of flow fields and the predominance of turbulence over diffusion, plumes tend to meander, become patchy and, to a far lesser extent, spread out [4]. Furthermore, the plume structure can change over time if the direction of air flow shifts considerably, being difficult to accurately determining the wind flow direction.…”
Section: Introductionmentioning
confidence: 99%