IOPscience

Measurement Science and Technology

Quick search Find article
Quick search
Find article
Measurement Science and Technology Volume 20 Number 4 Create an alert RSS this journal

Ulrich Guth et al 2009 Meas. Sci. Technol. 20 042002 doi:10.1088/0957-0233/20/4/042002

Recent developments in electrochemical sensor application and technology—a review

FEATURED ARTICLE REVIEW ARTICLE

Ulrich Guth1,2, Winfried Vonau2 and Jens Zosel2

Show affiliations

Tag this article Full text PDF (2.29 MB)

Abstract References Cited By
[1]
1993 Deutsche Einheitsverfahren zur Wasser-, Abwasser- und Schlammuntersuchung (German Standards for Water, Waste Water and Sludge Investigations) vols 1-4 (Weinheim: VCH) (in German)

[2]
DIN 19 263 Glaselektroden (Glass electrodes for pH measurement) German standard (in German)

[3]
DIN 19 264 Bezugselektroden (pH measurement; reference electrodes) German standard (in German)

[4]
Guth U, Gerlach F, Decker M, Oelßner W and Vonau W 2009 Solid-state reference electrodes for potentiometric sensors J. Solid State Electrochem. 13 27-39
CrossRef 
[5]
Gerlach F, Herrmann S, Lange R, Jahn H and Vonau W 2005 Messsystem für Kleinfermentoren (Measuring system for small fermentors) Dresdner Beiträge zur Sensorik vol 24 ed G Gerlach and H Kaden (Dresden: TUD) pp 245-8 (in German)

[6]
Herrmann S, Oelßner W, Kaden H, Brischwein M and Wolf B 2000 The influence of different methods of disinfection on the function of electrochemical sensors Sensors Actuators B 69 164-70
CrossRef 
[7]
Held K, Klare P, Müller D, Tonak P, Berthold F, Herrmann S, Vonau W, Wolf G, Harmel J and Hüttl R 2006 German patent DE 10 2006 013 117

[8]
Held K, Klare P, Müller D, Tonak P, Berthold F, Herrmann S, Vonau W, Wolf G, Harmel J and Hüttl R 2006 German Trademark DE 20 2006 008 928.4

[9]
Hüttl R, Harmel J, Lissner A, Wolf G, Klare P, Vonau W, Berthold F and Herrmann S 2008 A small-scale calorimetric reactor system combined with several chemical sensors for the investigation of microbial growth processes Eng. Life Sci. 8 56-61
CrossRef 
[10]
Oelssner W, Kaden H, Sauer R and Tautenhahn A 2002 Effects of CO2 sensitivity on trout Fish Farmer 25 12-3

[11]
Herrmann S, Vonau W, Gerlach F and Kaden H 1998 Miniaturized sensor module for in-situ control of waters Fresenius J. Anal. Chem. 362 215-7
CrossRef 
[12]
Bergveld P 2003 Thirty years of ISFETOLOGY: what happened in the past 30 years and what may happen in the next 30 years Sensors Actuators B 88 1-20
CrossRef 
[13]
Henze G, Köhler M and Lay J P 1999 Umweltdiagnostik mit Mikrosystemen (Environmental Diagnosis Using Micro Systems) (Weinheim: Wiley-VCH) (in German)
CrossRef 
[14]
Belford R E, Kelly R G and Owen A E 1988 Thick film devices Chemical Sensors ed E Edmonds (London: Blackie) p 236

[15]
Janata J 1994 Historical review: twenty years of ion-selective field-effect transistors Analyst 119 2275-8
CrossRef 
[16]
Bergveld P 1972 Development, operation and application of the ion-selective field-effect transistor as tool for electrophysiology IEEE Trans. Biomed. Eng. 19 340-51
CrossRef 
[17]
Moritz W, Bartholomäus L, Roth U, Filippov V, Vasiliev A and Terentjev A 1999 Semiconductor sensors for the detection of fluorocarbons, fluorine and hydrogen fluoride Anal. Chim. Acta 393 9-57
CrossRef 
[18]
Oelssner W, Zosel J, Guth U, Pechstein T, Babel W, Connery J G, Demuth C, Grote Gansey M and Verburg J B 2005 Encapsulation of ISFET sensor chips Sensors Actuators B 105 104-17
CrossRef 
[19]
Kaden H, Gläser M, Hösel M and Oelßner W 1995 German Patent DE 195 06 863

[20]
Leppävuori S I and Romppainen P S 1983 The use of hybrid microelectronics in the construction of ion-selective electrodes Electrocompon. Sci. Technol. 10 129

[21]
Herrmann S, Berthold F, Vonau W, Mayer W and Bieger W 2006 Elektrochemischer Redoxchip für bioanalytische Messungen (Electrochemical redox chip for bioanalytical measurements) Dresdner Beiträge zur Medizintechnik vol 1 ed R Poll and J Füssel (Dresden: TUD) pp 55-60 (in German)

[22]
Brischwein M, Herrmann S, Vonau W, Berthold F, Grothe H, Motrescu E R and Wolf B 2006 Electric cell-substrate impedance sensing with screen printed electrode structures Lab Chip 6 819-22
CrossRef  PubMed 
[23]
Kaden H, Herrmann S and Oelßner W 1999 Miniaturisierte planare und zylindrische Sauerstoffsensoren für zellbiologische Untersuchungen (Miniaturised planar and cylindrical oxygen sensors for biological cell investigation) DECHEMA-Jahrestagungen '99-17. Jahrestagung der Biotechnologen. vol 1 p 250 Kurzfassungen (in German)

[24]
Bartlett P N 1990 Biosensors: A Practical Approach ed A E G Cass (Oxford: IRL Press) pp 47-97

[25]
Ilchmann F, Ressler J, Meyer J, Grothe H and Wolf B 2006 Recording chamber for glass-based sensorchips with MEA and integrated oxygen-, pH- and temperature sensors Proc. MEA Meeting 2006, 5th Int. Meeting on Substrate- Integrated Micro Electrode Arrays pp 222-3

[26]
Otto A M, Brischwein M, Motrescu E, Cabala E, Grothe H, Stepper C and Wolf B 2004 Chips statt Mäuse: Zellen auf bioelektronischen Sensorchips als Alternative zu Tierversuchen (Chips vs. mice: cells on bioelectric sensor chips as an alternative to animal experiments) ALTEX 21 70-6 (Suppl. Linz 3) (in German)
PubMed 
[27]
Patterson M J, Galloway S D R and Nimmo M A 2000 Variations in regional sweat composition in normal human males Exp. Physiol. 85 869-75
CrossRef  PubMed 
[28]
Oelssner W and Herrmann S 2002 German Patent DE 101 13 143

[29]
Lambrechts M and Sansen W 1992 Biosensors: Microelectrochemical Devices (Bristol: Institute of Physics Publishing)

[30]
Herrmann S and Vonau W 2004 Online-Analyse mit Lab-on-Chip-Systemen (On-line analysis using lab-on-chip systems) Techn. Messen 71 613-8 (in German)
CrossRef 
[31]
Brischwein M, Motrescu E R, Cabala E, Otto A M, Grothe H and Wolf B 2003 Functional cellular assays with multiparametric silicon sensor chips Lab Chip 3 234-40
CrossRef  PubMed 
[32]
Vonau W, Enseleit U, Gerlach F and Herrmann S 2004 Conceptions, materials, processing technologies and fields of application for miniaturized electrochemical sensors with planar membranes Electrochimica Acta 49 3745-50
CrossRef 
[33]
Seitz D, Mayr H, Ziegler G, Vonau W, Gerlach F and Herrmann S 2007 German Patent DE 10 2007 034 935

[34]
Gerlach F, Seitz D, Herrmann S, Mayr H, Ziegler G and Vonau W 2007 Konzeption für ein kompatibles Sensorarray-System mit Schnellankopplungsmechanismus für eine Online-Messung in der Zellkulturtechnik (Concept for a compatible sensor array with a fast coupling mechanism for on-line measurements in cell cultures) Dresdner Beiträge zur Sensorik vol 29 ed G Gerlach and P Hauptmann (Dresden: TUD) pp 245-8 (in German)

[35]
Herrmann S, Berthold F, Mayer W, Bieger W and Vonau W 2007 Sensormodul zur Bestimmung von Life Sciences relevanten Parametern (Sensor module for the determination of parameters relevant for life sciences) Dresdner Beiträge zur Sensorik vol. 29 ed G Gerlach and P Hauptmann (Dresden: TUD) pp 175-8 (in German)

[36]
Vonau W and Herrmann S 2007 German Patent DE 10 2007 050 477

[37]
Schulze P, Schüttpelz M, Sauer M and Belder D 2007 Two-photon excited fluorescence detection at 420 nm for label-free detection of small aromatics and proteins in microchip electrophoresis Lab Chip 12 1841-4
CrossRef  PubMed 
[38]
Backofen U, Matysik F-M and Lunte C E 2002 A chip-based electrophoresis system with electrochemical detection and hydrodynamic injection Anal. Chem. 74 4054
CrossRef  PubMed 
[39]
Tolba K and Belder D 2007 Fast quantitative determination of diuretic drugs in tablets and human urine by microchip electrophoresis with native fluorescence detection Electrophoresis 28 2934-41
CrossRef  PubMed 
[40]
Peters H and Möbius H-H 1958 German Patent DD 21673

[41]
Möbius H-H 1992 Solid-state electrochemical potentiometric sensors for gas analysis Sensors. A Comprehensive Survey vol 3 ed W Göpel, J Hesse and J N Zemel (Weinheim: VCH) pp 1106-51

[42]
Fleming W J 1977 Physical principles governing non-ideal behaviour of the zirconia oxygen sensor J. Electrochem. Soc. 124 21-8
CrossRef 
[43]
Gauthier M and Chamberland A 1977 Solid-state detectors for the potentiometric determination of gaseous oxides J. Electrochem. Soc. 124 1579-83
CrossRef 
[44]
Guth U, Schmidt P and Möbius H-H 1988 Kontinuierliche potentiometrische SO2-Bestimmung in Luft mit Hilfe galvanischer Festelektrolytzellen (Continuous potentiometric determination of SO2 in air by means of galvanic solid electrolyte cells) Z. Chem. Lpz. 28 343-4 (in German)

[45]
Shuk P, Bailey E and Guth U 2008 Zirconia oxygen sensors for process application: state-of-the-art Sensors Transducers 90 174-84

[46]
Guth U 2008 Gas sensors Electrochemical Dictionary ed A J Bard, G Inzelt and F Scholz (Berlin: Springer) pp 294-9

[47]
Hartung R, Schröder R and Möbius H-H 1981 Brenngas-sensitive gassymmetrische galvanische Zellen mit oxidionenleitenden Festelektrolyten (Fuel gas sensitive gas symmetric cells using oxide ion conducting solid electrolytes) Z. Phys. Chem. Lpz. 262 961-6 (in German)

[48]
Miura N, Raisen T, Lu G and Yamazoe N 1998 Highly selective CO sensor using stabilized zirconia and a couple of oxide electrodes Sensors Actuators B 47 84-91
CrossRef 
[49]
Garzon F H, Mukundan R and Brosha E L 2000 Solid-state mixed potential gas sensors: theory, experiments and challenges Solid State Ionics 136-137 633-8
CrossRef 
[50]
Hibino T, Kakimoto S and Sano M 1999 Non-Nernstian behavior at modified Au electrodes for hydrocarbon gas sensing J. Electrochem. Soc. 146 3361-6
CrossRef 
[51]
Mari C M 2003 Non-Nernstian solid state gas sensors: operating principles and materials Ionics 9 365-9
CrossRef 
[52]
Chevallier L, Di Bartolomeo E, Grilli M L, Mainas M, White B, Wachsman E D and Traversa E 2008 Non-Nernstian planar sensors based on YSZ with a Nb2O5 electrode Sensors Actuators B 129 591-8
CrossRef 
[53]
Morata A, Viricelle J P, Tarancón A, Dezanneau G, Pijolat C, Peiro F and Morante J R 2008 Development and characterisation of a screen-printed mixed potential gas sensor Sensors Actuators B 130 561-6
CrossRef 
[54]
Schmidt-Zhang P and Guth U 2004 A planar thick film sensor for hydrocarbon monitoring in exhaust gases Sensors Actuators B 99 258-63
CrossRef 
[55]
Zosel J, Westphal D, Jakobs S, Müller R and Guth U 2002 Au-oxide composites as HC-sensitive electrode material for mixed potential gas sensors Solid State Ionics 152-153 525-9
CrossRef 
[56]
Di Bartolomeo E, Grilli M L and Traversa E 2004 Sensing mechanism of potentiometric gas sensors based on stabilized zirconia with oxide electrodes J. Electrochem. Soc. 151 H133-9
CrossRef 
[57]
Zosel J, Tuchtenhagen D, Ahlborn K and Guth U 2008 Mixed potential gas sensor with short response time Sensors Actuators B 130 326-9
CrossRef 
[58]
Thiemann S, Hartung R, Wulff H, Klimke J, Möbius H-H, Guth U and Schönauer U 1996 Modified Au/YSZ electrodes-preparation, characterization and electrode behaviour at higher temperatures Solid State Ionics 86-88 873-6
CrossRef 
[59]
Zosel J, Opitz T, Bley T and Guth U 2006 Einsatz hochempfindlicher Gassensoren für das Monitoring der Aktivität von Schimmelpilzkulturen (Application of highly sensitive gas sensors for monitoring of mould culture) Der Versuchs- und Forschungsingenieur 39 31-7 (in German)

[60]
Kleitz M, Siebert E, Fabry P and Fouletier J 1992 Solid-state electrochemical sensors Sensors. A Comprehensive Survey vol 2 ed W Göpel, J Hesse and J N Zemel (Weinheim: VCH) p 413

[61]
Takeuchi T and Igarashi I 1988 Chemical Sensor Technology vol 1 ed T Seiyama (Tokyo: Elsevier) pp 79-95

[62]
Schmidt-Zhang P, Sandow K-P, Adolf F, Göpel W and Guth U 2000 A novel thick film sensor for simultaneous O2 and NO monitoring in exhaust gases Sensors Actuators B 70 25-9
CrossRef 
[63]
Garzon F, Raistrick I, Brosha E, Houlton R and Chung B W 1998 Dense diffusion barrier limiting current oxygen sensors Sensors Actuators B 50 125-30
CrossRef 
[64]
Tang Z, Zhou X, Yao W, Zhang Z and Zhou Z 2004 A novel zirconia oxygen sensor with dense diffusion barrier Chemical Sensors 20 (Suppl. B) 246-7

[65]
Peng Z, Liu M and Balko E 2001 A new type of amperometric oxygen sensor based on a mixed-conducting composite membrane Sensors Actuators B 72 35-40
CrossRef 
[66]
Somov S, Reinhardt G, Guth U and Göpel W 1996 Gas analysis with arrays of solid state electrochemical sensors: implications to monitor HCs and NOx in exhausts Sensors Actuators B 36 409-18
CrossRef 
[67]
Somov S and Guth U 1998 A parallel analysis of oxygen and combustibles in solid electrolyte amperometric cells Sensors Actuators B 47 131-8
CrossRef 
[68]
Kato N, Ina N, Watanabe Y and Murase T 1996 Method and sensing device for measuring predetermined gas component in measurement gas EP patent 0769693

[69]
Zhang W F, Schmidt-Zhang P and Guth U 2004 Electrochemical studies on cells M/YSZ/Pt (M = Pt, Pt-Ga2O3) in NO, O2, N2 gas mixtures Solid State Ionics 169 121-8
CrossRef 
[70]
Dutta A and Ishihara T 2005 Amperometric NOx sensor based on oxygen pumping current by using LaGaO3 based solid electrolyte for monitoring exhaust gas Sensors Actuators B 108 309-13
CrossRef 
[71]
Miura N, Wang J, Nakatou M, Elumalai P and Hasei M 2005 NOx sensing characteristics of mixed-potential-type zirconia sensor using NiO sensing electrode at high temperatures Electrochem. Solid-State Lett. 8 H9-11
CrossRef 
[72]
Elumalai P and Miura N 2005 Performance of planar NO2 sensor using stabilised zirconia and NiO sensing electrode at high temperature Solid State Ionics 176 2517-22
CrossRef 
[73]
Ueda T, Plashnitsa V V, Nakatou M and Miura N 2007 Zirconia-based amperometric sensor using ZnO sensing-electrode for selective detection of propene Electrochem. Com. 9 197-200
CrossRef 
[74]
Plashnitsa V V, Ueda T, Elumalai P and Miura N 2008 NO2 sensing performances of planar sensor using stabilized zirconia and thin-NiO sensing electrode Sensors Actuators B 130 231-9
CrossRef 
[75]
Miura N, Nakatou M and Zhuiykov S 2003 Impedancemetric gas sensor based on stabilised zirconia solid electrolyte and oxide sensing electrode for detecting total NOx at high temperature Sensors Actuators B 93 221-8
CrossRef 
[76]
Nakatou M and Miura N 2006 Detection of propene by using new-type impedancemetric zirconia based sensor attached with oxide sensing-electrode Sensors Actuators B 120 57-62
CrossRef 
[77]
Nakatou M and Miura N 2005 Detection of combustible hydrogen-containing gases by using impedancemetric zirconia-based water-vapor sensor Solid State Ionics 176 2511-5
CrossRef 
[78]
Hagen G, Dubbe A, Rettig F, Jerger A, Birkhofer T, Müller R, Plog C and Moos R 2006 Selective impedance based gas sensors for hydrocarbons using ZSM-5 zeolite films with chromium(III)oxide interface Sensors Actuators B 119 441-8
CrossRef 
[79]
Zosel J, Franke D, Ahlborn K, Gerlach F, Vashook V and Guth U 2008 Perovskite related electrode materials with enhanced NO sensitivity for mixed potential sensors Solid State Ionics 179 1628-31
CrossRef 
[80]
Zosel J, Müller R, Vashook V and Guth U 2004 Response behavior of perovskites and Au/oxide composites as HC-electrodes in different combustibles Solid State Ionics 175 531-3
CrossRef 
[81]
Hartung R 1983 Über den Nachweis oxidierbarer Verunreinigungen in Luft, Sauerstoff und O2-haltigen Inertgasen mit Festelektrolytzellen (On the detection of oxidable components in air oxygen and in oxygen containing inert gases by means of solid electrolyte cells) Z. Chem. 23 154-5 (in German)
CrossRef 
[82]
Vogel A, Baier G and Schüle V 1993 Non-Nernstian potentiometric zirconia sensors: screening of potential working electrode materials Sensors Actuators B 15 147-50
CrossRef 
[83]
Lu G, Miura N and Yamazoe N 1996 High-temperature hydrogen sensor based on stabilized zirconia and a metal oxide electrode Sensors Actuators B 35 130-5
CrossRef 
[84]
Westphal D, Mather G C, Marques F, Jakobs S and Guth U 2000 Ionic and electronic conduction in stoichiometric and sub-stoichiometric perovskites Solid State Ionics 136-7 19-24
CrossRef 
[85]
Wang J, Elumalai P, Terada D, Hasei M and Miura N 2006 Mixed-potential-type zirconia-based NOx sensor using Rh-loaded NiO sensing electrode operating at high temperatures Solid State Ionics 177 2305-11
CrossRef 
[86]
Park K and Logothetis E M 1977 Oxygen sensing with Co1−xMgxO ceramics J. Electrochem. Soc. 124 1443-6
CrossRef 
[87]
Moos R, Menesklou W, Schreiner H-J and Härdtl K-H 2000 Materials for temperature independent resistive oxygen sensor for combustion exhaust gas control Sensors Actuators B 67 178-83
CrossRef 
[88]
Rothschild A, Litzelman S J, Tuller H L, Menesklou W, Schneider T and Ivers-Tiffée E 2005 Temperature-independent resistive oxygen sensors based on SrTi1−xFexO3−δ Sensors Actuators B 108 223-30
CrossRef 
[89]
Guth U, Oelssner and Vonau W 2001 Investigation of corrosion phenomena on chemical microsensors Electrochimica Acta 47 201-10
CrossRef 
[90]
Fokkens E E, Schäf O and Guth U 2000 The monitoring of water and water vapour diffusion into clay by impedance spectroscopy Ionics 6 442-50
CrossRef 
[91]
Fokkens E E and Guth U 2001 Quantitative estimation of the content of seeping water and estimation of the velocity in clay barriers by impedance spectroscopy Ionics 7 192-8
CrossRef 
[92]
Fichtner W and Kaden H 2003 Neue Sensoren zur Diagnose des Ölzustandes in Kraftfahrzeugen des Strassen- und Bahnverkehrs (New sensors for diagnosis of the oil state in road and railway vehicles) Dresdener Beiträge zur Sensorik vol 20 ed J P Baselt and G Gerlach (Dresden: TU) pp 23-6 (in German)

[93]
Becker D, Jüttner K, Fichtner W and Guth U 2006 Online-Monitoring von Tonabdichtungen in Deponien mit Hilfe der Impedanzspektroskopie (On-line monitoring of clay sealings in landfills by means of impedance spectroscopy) Abh. Sächs. Akad. Wiss Leipzig, Math.-naturw. Klasse 63 127-34 (in German)

[94]
Hassan A, Guth U and Bernhardt G 2005 Verfahren zur Mastidendiagnose mit Wechselstrommethoden (Method for diagnosis of mastitis by means of ac measurements) Techn. Messen 72 701-9 (in German)
CrossRef 
[95]
Ehret R, Baumann W, Brischwein M, Schwinde A and Wolf B 1998 On-line control of cellular adhesion with impedance measurements using interdigitated electrode structures Med. Biol. Eng. Comput. 36 365-70
CrossRef  PubMed 
[96]
Jackson B J, Dietz S M and Wightman R M 1995 Fast-scan cyclic voltammetry of 5-hydroxytryptamine Anal. Chem. 67 1115-20
CrossRef  PubMed 
[97]
Akiyama A, Kato T, Ishii K and Yasuda E 1985 In vitro measurement of dopamine concentration with carbon fiber electrode Anal. Chem 57 1518-22
CrossRef  PubMed 
[98]
Kumar S S, Mathiyarasu J, Phani K L N and Yegnaraman V 2006 Simultaneous determination of dopamin and ascorbic acid on poly(3,4-ethylenedioxythiophene) modified glassy carbon electrode J. Solid State Electrochem. 10 905-13
CrossRef 
[99]
Jayraman N 2007 Dendrimers and their use as nanoscale sensors Nanomaterials Chemistry ed C N R Rao, A Müller and A K Cheetham (Weinheim: Wiley-VCH)
CrossRef 
[100]
Yegnaraman V, Decker M, Berthold M, Vonau W, Tran T N and Guth U 2009 to be published

[101]
Stamford J A, Palij P, Davidson C and Trout S J 1995 Fast cyclic voltammetry: neurotransmitter measurement in ‘real time’ and ‘real space’ Bioelectrochem. Bioenergetics 38 289-96
CrossRef 
[102]
Schwarz J, Kaden H and Enseleit U 2000 Voltammetric examinations of ferrocene on micro electrodes and microarray electrodes Electrochem. Com. 2 606-11
CrossRef 
[103]
Schwarz J and Kaden H 2000 Micro array electrodes for voltammetric and amperometric detection of organic pollutants Fresenius J. Anal. Chem. 367 384-7
CrossRef  PubMed 
[104]
Kattemann B B and Schuhmann W 2002 Fabrication and characterization of needle-type Pt-disk nanoelectrodes Electroanal. 14 22-8
CrossRef 
[105]
Schwarz J, Oelßner W, Kaden H, Schumer F and Hennig H 2003 Voltammetric and spectroelectrochemical studies on 4-aminophenol at gold electrodes in aqueous and organic media Electrochim. Acta. 48 2479-86
CrossRef 
[106]
Heinze J 1993 Elektrochemie mit Ultramikroelektroden (Electrochemistry using ultra micro electrodes) Angew. Chem. 105 1327-49 (in German)
CrossRef 
crossref member

Your last 10 viewed
  1. Recent developments in electrochemical sensor application and technology—a review

    Ulrich Guth et al 2009 Meas. Sci. Technol. 20 042002

  2. The Early Asymmetries of Supernova 2008D/XRF 080109

    Justyn R. Maund et al. 2009 ApJ 705 1139

  3. Hither and yon: a review of bi-directional microtubule-based transport

    Steven P Gross 2004 Phys. Biol. 1 R1

  4. Residual Gas Motions in the Intracluster Medium and Bias in Hydrostatic Measurements of Mass Profiles of Clusters

    Erwin T. Lau et al. 2009 ApJ 705 1129

  5. T-matrix theory of positron annihilation on hydrogen

    G G Ryzhikh and J Mitroy 2000 J. Phys. B: At. Mol. Opt. Phys. 33 2229

  6. Highly oriented carbon nanotube papers made of aligned carbon nanotubes

    Ding Wang et al 2008 Nanotechnology 19 075609

  7. Recovering 'lost' information in the presence of noise: application to rodent–predator dynamics

    V N Smelyanskiy et al 2009 New J. Phys. 11 053012

  8. Piezoelectric MEMS sensors: state-of-the-art and perspectives

    S Tadigadapa and K Mateti 2009 Meas. Sci. Technol. 20 092001

  9. Phase-stable single-pass cryogenic amplifier for high repetition rate few-cycle laser pulses

    Akira Ozawa et al 2009 New J. Phys. 11 083029

  10. Molecular electronics in junctions with energy disorder

    Franz J Kaiser et al 2008 New J. Phys. 10 065013

Users also read

What's this?
This innovative new feature generates a list of articles 'also read' by other users based on them reading the original article. Article abstracts citations and references are all considered and weighted accordingly. We hope that this will help you find relevant papers for your research.

  1. Sloan Digital Sky Survey: Early Data Release
  2. Fabrication of a nanofibrous scaffold with improved bioactivity for culture of human dermal fibroblasts for skin regeneration
  3. Deterministic point inclusion methods for computational applications with complex geometry
More

Related review articles

What's this?
View review articles related to this research to gain an insight into the key trends in this subject area. Related review articles are selected based on PACS/MSC codes, and are no more than three years old.

  1. The measurement of dissolved and gaseous carbon dioxide concentration
  2. Present status of solid state photoelectrochemical solar cells and dye sensitized solar cells using PEO-based polymer electrolytes
  3. Electrode materials: a challenge for the exploitation of protonic solid oxide fuel cells
More

Share

View by subject




Export








Please login to access our web services, or create an account if you don't yet have one.

You must have cookies enabled in your web browser to be able to login.

Username
Password

Forgotten your password? Get a new one here.