Publications

03/11/2026 Thiago Regis Longo Cesar da Paixão

Scopus Publications List

Generated on 3 November 2026

Total Publications: 198 — Total Citations: 7146

Distribution by Document Type

Article
151
Review
24
Book chapter
11
Editorial
4
Conference paper
3
Book
2
Erratum
1
Short survey
1
Note
1

Publications

2026 (9)

  1. Araújo D.A.G.; Baldo T.A.; Paixão T.R.L.C.; Henry C.S., Sponge-Based Flow Control in Laminate Capillary-Driven Electrochemical Microfluidic Devices for Viscous Sample Analysis, Analytical Chemistry, 98(14), (2026) 10521-10531, DOI, Article, Cited by: 2
  2. Araújo D.A.G.; Oliveira A.C.M.; Veloso W.B.; Martins B.R.; Richter E.M.; Paixão T.R.L.C.; Muñoz R.A.A., 3D printing for biosensors: from fabrication methods towards point-of-care testing devices, TrAC - Trends in Analytical Chemistry, 201, (2026) 118872, DOI, Review, Cited by: 2
  3. Araújo D.A.G.; Veloso W.B.; Silva Junior G.J.; de Farias D.M.; Pradela-Filho L.A.; Paixão T.R.L.C., Bridging electrochemical performance and affordability: the challenges in characterizing emergent low-cost electrochemical sensors, Analyst, 151(18), (2026) 5177-5190, DOI, Review, Cited by: 0
  4. de Lima L.F.; Estrela P.F.N.; Lopes-Luz L.; Pradela-Filho L.A.; Souza J.V.; dos Santos D.J.A.; Duarte G.R.M.; Coltro W.K.T.; Paixão T.R.L.C., Electrochemical strategies for lateral flow and LAMP-Based platforms toward pathogen detection: A critical review, Analytica Chimica Acta, 1409, (2026) 345476, DOI, Review, Cited by: 2
  5. de Lima L.F.; Faustino L.C.; Mestanza N.V.B.; Nascimento G.H.M.D.; Santos L.E.D.; de Moraes Lacerda T.; Galdino N.S.; de Jesus M.B.; Gerôncio E.T.S.; de Araujo W.R.; Paixão T.R.L.C., Automated carousel-based electrochemical sensing toward microbiological and oncological settings, Analytica Chimica Acta, 1416, (2026) 345824, DOI, Article, Cited by: 0
  6. de Lima L.F.; Pradela-Filho L.A.; Estrela P.F.N.; Resende P.C.; Siqueira M.M.; Duarte G.R.M.; Paixão T.R.L.C., High throughput influenza A virus detection by isothermal amplification in sequential-injection paper-based microfluidics, Biosensors and Bioelectronics, 294, (2026) 118249, DOI, Article, Cited by: 6
  7. Marinho J.Z.; Araújo D.A.G.; Nascimento L.L.; Toledo Patrocinio A.O.; Gonçalves Trindade M.A.; Matias T.A.; Bonacin J.A.; Longo Cesar Paixão T.R.; Muñoz R.A.A., Laser-induced NiO-embedded graphene nanostructures: Single-step generation of nonenzymatic electrochemical sensors, Materials Science and Engineering: B, 323, (2026) 118701, DOI, Article, Cited by: 5
  8. Pradela-Filho L.A.; Veloso W.B.; Rocha D.S.; Silva Junior G.J.; Ferreira B.; Paixão T.R.L.C., Electrochemical paper-based microfluidic devices: A review of separation, flow analysis, and origami-inspired architectures, Analytica Chimica Acta, 1405, (2026) 345414, DOI, Review, Cited by: 3
  9. Veloso W.B.; Paixão T.R.L.C., Current challenges and opportunities in translating 3D-printed biosensors from laboratory bench to real-world use, Current Opinion in Electrochemistry, 60, (2026) 101934, DOI, Review, Cited by: 0

2025 (20)

  1. Araújo D.A.G.; Pradela-Filho L.A.; Marra M.C.; Oliveira T.C.; Rodrigues A.L.; Silva L.A.J.; Faria A.M.; Richter E.M.; Munoz R.A.A.; Paixão T.R.L.C.; Takeuchi R.M.; Santos A.L., Enhancing fouling resistance of graphite sheets for electrochemical sensing of bisphenol-A, Analyst, 150(12), (2025) 2632-2642, DOI, Article, Cited by: 0
  2. Berkheimer Z.A.; Tahir A.; Nordin G.P.; Paixão T.R.L.C.; Woolley A.T.; do Nascimento G.H.M.; de Araujo W.R.; Pradela-Filho L.A., Extruded filament electrodes for lactate biosensing in continuous-injection paper-based microfluidic devices, Biosensors and Bioelectronics, 278, (2025) 117390, DOI, Article, Cited by: 15
  3. Boane A.A.; Araújo D.A.G.; Muñoz R.A.A.; Paixão T.R.L.C.; Richter E.M., Sulfamethoxazole Detection in Milk Using a Carbon-Based Printed Electrode: Enhanced Selectivity and Response Stability by Pulse-Amperometry, Journal of the Electrochemical Society, 172(2), (2025) 027504, DOI, Article, Cited by: 3
  4. Citterio D.; Paixão T.R.L.C.; de Araujo W.R., Introduction to ‘Paper-Based Point-of-Care Diagnostics’, Sensors and Diagnostics, 4(12), (2025) 1045-1046, DOI, Editorial, Cited by: 2
  5. Correia P.R.M.; Kinchin I.M.; Paixão T.R.L.C.; Harvey D.T., Flipping the lab with AI support: a scalable model to address the theory–practice gap in analytical chemistry education, Analytical and Bioanalytical Chemistry, 417(19), (2025) 4283-4290, DOI, Article, Cited by: 3
  6. Crapnell R.D.; Arantes I.V.S.; Bernalte E.; Sigley E.; Smith G.C.; Paixão T.R.L.C.; Banks C.E., The effects of different plasticisers on the electrochemical performance of bespoke conductive additive manufacturing filaments using recycled PLA, Analyst, 150(12), (2025) 2702-2711, DOI, Article, Cited by: 11
  7. Dayan A.; Silva Junior G.J.; Angnes L.; Ataide V.N.; Pradela-Filho L.A.; Paixão T.R.L.C., A review on thermoplastic electrodes: From fabrication to electrochemical (Bio)sensing applications, Analytica Chimica Acta, 1380, (2025) 344518, DOI, Review, Cited by: 2
  8. Dayan A.; Veloso W.B.; Araújo D.A.G.; Paixão T.R.L.C., 3D-printed electrochemical sensor for rapid nicotine detection in e-cigarette liquids and artificial sweat, Microchemical Journal, 218, (2025) 115162, DOI, Article, Cited by: 4
  9. De Farias D.M.; Meloni G.N.; Paixão T.R.L.C., Tunable Mass Transport and Enhanced Electrochemical Performance of CO2 Laser Engraved Electrodes, Advanced Materials Technologies, 10(24), (2025) e01374, DOI, Article, Cited by: 0
  10. de Lima L.F.; Corsato P.C.R.; Beluomini M.A.; Ferreira A.L.; Esterdos Santos L.; Barbosa P.P.; Simeoni C.L.; de Jesus M.B.; Proenca-Modena J.L.; Paixão T.R.L.C.; de Araujo W.R., Smart Textile Electrochemical Capacitive Biosensor for Real-Time Monkeypox Virus Detection, ACS Applied Electronic Materials, 7(7), (2025) 2882-2893, DOI, Article, Cited by: 9
  11. de Lima L.F.; Estrela P.F.N.; Faustino L.C.; Souza J.V.; Justino de Assunção C.; Gerôncio E.T.S.; Fonseca de Lima L.; Luiz Cardoso Bailão E.F.; de Araujo W.R.; Paixão T.R.L.C.; Duarte G.R.M., 3D-printed electrochemical loop-mediated isothermal amplification (E-LAMP): A miniaturized and portable platform to detect methicillin-resistant Staphylococcus aureus (MRSA), Analytica Chimica Acta, 1372, (2025) 344455, DOI, Article, Cited by: 6
  12. de Lima L.F.; Ferreira A.L.; dos Santos L.E.; Coelho K.L.P.; Santos K.T.; Schmidt A.; de Jesus M.B.; Paixão T.R.L.C.; de Araujo W.R., Bacterial Cellulose-Based Laser-Scribed Graphene Electrode for Hydrogen Peroxide Detection in Cancer Cells, ACS Applied Bio Materials, 8(7), (2025) 6339-6349, DOI, Article, Cited by: 8
  13. Ferreira B.; Arantes I.V.S.; Crapnell R.D.; Bernalte E.; Banks C.E.; Paixao T.R.L.C., 3D printing pen for patterning electrochemical sensors on a paper platform for capsaicin detection, Analyst, 150(8), (2025) 1533-1540, DOI, Article, Cited by: 7
  14. Ferreira B.; Crapnell R.D.; Bernalte E.; Paixão T.R.L.C.; Banks C.E., Low-cost conductive polypropylene for electroanalysis in organic solvents using additively manufactured electrodes, Electrochimica Acta, 515, (2025) 145680, DOI, Article, Cited by: 15
  15. Henry C.S.; Ataide V.N.; Cherwin A.; Baldo T.A.; Russo M.J.; Meloni G.N.; Paixão T.R.L.C., Micro/millifluidic platforms for bioanalytical applications, 3D Printing in Analytical Chemistry: Sample Preparation, Separation, and Sensing, (2025) 425-449, DOI, Book chapter, Cited by: 1
  16. Paixão T.R.L.C., Electrospun mesh electrodes advance paper-based nucleic acid detection, Trends in Chemistry, 7(12), (2025) 737-739, DOI, Short survey, Cited by: 0
  17. Santos R.S.; da Paixão T.R.L.C.; Meloni G.N., Coulometric Titration Experimental Practice for Undergraduate Laboratories: A 1960s Twist to a Modern Coulometer, Journal of Chemical Education, 102(2), (2025) 654-660, DOI, Article, Cited by: 0
  18. Sevene D.R.; Matias T.A.; Araújo D.A.G.; Inoque N.I.G.; Nakamura M.; Paixão T.R.; Muñoz R.A.A., Laser-Induced Graphene for Electrochemical Sensing of Antioxidants in Biodiesel, ACS Omega, 10(1), (2025) 368-377, DOI, Article, Cited by: 10
  19. Silva Junior G.J.; Felipe L.F.Z.; Pinto A.L.M.; Araújo D.A.G.; Paixão T.R.L.C.; Regiart M.; Bertotti M., Single-step electrochemical fabrication of nanoporous gold film with reduced graphene oxide for carbendazim quantification in river water, Electrochimica Acta, 525, (2025) 146162, DOI, Article, Cited by: 4
  20. Silva P.S.L.; Araujo D.A.G.; Medeiros D.N.; Ando R.A.; Pradela-Filho L.A.; Paixão T.R.L.C., Copper Electrodes via 3D Printing and Laser Sintering Fabrication for Nonenzymatic Glucose Detection, ACS Applied Electronic Materials, 7(14), (2025) 6520-6528, DOI, Article, Cited by: 5

2024 (24)

  1. Arrigan D.W.M.; De Wael K.; Dick J.E.; Paixão T.; Ying Y.-L., Electrochemistry and Electroanalytical Approaches, Analyst, 150(2), (2024), DOI, Editorial, Cited by: 1
  2. Ataide V.N.; Pradela Filho L.A.; Souza Guinati B.G.; Moreira N.S.; Gonçalves J.D.; Gentil Ribeiro C.M.; Grasseschi D.; Tomazelli Coltro W.K.; Salles M.O.; Longo Cesar Paixão T.R., Corrigendum to “Combining chemometrics and paper-based analytical devices for sensing: An overview” [TrAC. Trends Anal. Chem. 164 (2023) 117091] (Trends in Analytical Chemistry (2023) 164, (S0165993623001784), (10.1016/j.trac.2023.117091)), TrAC - Trends in Analytical Chemistry, 170, (2024) 117451, DOI, Erratum, Cited by: 1
  3. Baldo T.A.; Ataide V.N.; Park J.; Panraksa Y.; Martinez B.; Anderson L.B.R.; Malsick L.E.; Gallichotte E.N.; Ebel G.D.; Geiss B.J.; Dandy D.S.; Paixão T.R.L.C.; Henry C.S., Automated enzyme-linked immunosorbent assay for point-of-care COVID-19 testing, Electrochimica Acta, 497, (2024) 144525, DOI, Article, Cited by: 18
  4. Blasques R.V.; Camargo J.R.; Veloso W.B.; Meloni G.N.; Fernandes F.A.; Germinare B.F.; Guterres e Silva L.R.; de Siervo A.; Paixão T.R.L.C.; Janegitz B.C., Green Fabrication and Analytical Application of Disposable Carbon Electrodes Made from Fallen Tree Leaves Using a CO2 Laser, ACS Sustainable Chemistry and Engineering, 12(8), (2024) 3061-3072, DOI, Article, Cited by: 12
  5. Bottelli E.D.; de Lima L.F.; Paixão T.R.L.C.; de Araujo W.R., Laser-scribed graphene toward scalable fabrication of electrochemical paper-based devices for lidocaine detection in forensic and pharmaceutical samples, Electrochimica Acta, 507, (2024) 145162, DOI, Article, Cited by: 20
  6. Camargo J.R.; Orzari L.O.; de Souza Rodrigues J.; Felipe de Lima L.; Longo Cesar Paixão T.R.; Fraceto L.F.; Janegitz B.C., Advancements in disposable electrochemical systems for sustainable agriculture monitoring: Trends, gaps, and applied examples, TrAC - Trends in Analytical Chemistry, 180, (2024) 117968, DOI, Review, Cited by: 14
  7. Carvalho M.S.; Rocha R.G.; Nascimento A.B.; Araújo D.A.G.; Paixão T.R.L.C.; Lopes O.F.; Richter E.M.; Muñoz R.A.A., Enhanced electrochemical performance of 3D-printed electrodes via blue-laser irradiation and (electro)chemical treatment, Electrochimica Acta, 506, (2024) 144995, DOI, Article, Cited by: 33
  8. Crapnell R.D.; Arantes I.V.S.; Camargo J.R.; Bernalte E.; Whittingham M.J.; Janegitz B.C.; Paixão T.R.L.C.; Banks C.E., Multi-walled carbon nanotubes/carbon black/rPLA for high-performance conductive additive manufacturing filament and the simultaneous detection of acetaminophen and phenylephrine, Microchimica Acta, 191(2), (2024) 96, DOI, Article, Cited by: 45
  9. Di-Oliveira M.; Araújo D.A.G.; Ramos D.L.O.; Faria L.V.D.; Rocha R.G.; Sousa R.M.F.; Richter E.M.; Paixão T.R.L.C.; Munoz R.A.A., Sequential cyclic-square-wave voltammetric determination of sulfanilamide and ciprofloxacin in environment water samples using a 3D-printed electrochemical device, Electrochimica Acta, 481, (2024) 143945, DOI, Article, Cited by: 17
  10. Diana Lima C.; Arantes L.C.; Machado L.L.; Paixão T.R.L.C.; dos Santos W.T.P., Synthetic Cathinones' Comprehensive Screening and Classification by Voltammetric and Chemometric Analyses: A Powerful Method for On-Site Forensic Applications, Analytical Chemistry, 96(44), (2024) 17746-17753, DOI, Article, Cited by: 11
  11. Ferreira B.; Arantes I.V.S.; Gongoni J.L.M.; Pradela-Filho L.A.; Paixão T.R.L.C., Stencil-printed graphene electrodes for affordable electrochemical sensing of capsaicin, Microchemical Journal, 207, (2024) 112197, DOI, Article, Cited by: 6
  12. Ferreira B.; Arantes I.V.S.; Saraiva D.P.M.; Pradela-Filho L.A.; Bertotti M.; Paixão T.R.L.C., Commercial ink-coated PVC: No longer abrading conventional PVC surfaces for electrode fabrication using pencil drawing, Microchemical Journal, 198, (2024) 110149, DOI, Article, Cited by: 11
  13. Gongoni J.L.M.; Chumanov G.; Paixão T.R.L.C.; Garcia C.D., Au-Modified Carbon Electrodes Produced by Laser Scribing for Electrochemical Analysis of Probiotic Activity, Analysis and Sensing, 4(1), (2024) e202300056, DOI, Article, Cited by: 8
  14. Inoque N.I.G.; Araújo D.A.G.; de Lima D.M.; Sousa R.M.F.; Paixão T.R.L.C.; Munoz R.A.A., Rapid Quantification of Antioxidant Capacity in Tea Using Laser-Induced Graphene Electrodes, ACS Food Science and Technology, 4(6), (2024) 1589-1597, DOI, Article, Cited by: 8
  15. Oliveira A.C.M.; Richter E.M.; Paixão T.R.L.C.; Araújo D.A.G.; Muñoz R.A.A., Electrochemical determination of nitazoxanide in environmental and pharmaceutical samples using a boron-doped diamond electrode, Microchemical Journal, 207, (2024) 112162, DOI, Article, Cited by: 2
  16. Perone C.A.S.; Paixão T.R.L.C., Development and Performance Evaluation of Low-Cost Cellophane Paper-Based Biosensors for Polyphenol Detection in Teas: A Cost-EffectivAlternative to Teflon® Membranes Biosensors, Brazilian Journal of Analytical Chemistry, 11(43), (2024) 64-77, DOI, Article, Cited by: 1
  17. Pradela Filho L.A.; Paixão T.R.L.C.; Nordin G.P.; Woolley A.T., Leveraging the third dimension in microfluidic devices using 3D printing: no longer just scratching the surface, Analytical and Bioanalytical Chemistry, 416(9), (2024) 2031-2037, DOI, Article, Cited by: 27
  18. Pradela‑Filho L.A.; Araújo D.A.G.; Ataide V.N.; Meloni G.N.; Paixão T.R.L.C., Challenges faced with 3D-printed electrochemical sensors in analytical applications, Analytical and Bioanalytical Chemistry, 416(21), (2024) 4679-4690, DOI, Review, Cited by: 33
  19. Rocha D.S.; Baldo T.A.; Silva-Neto H.A.; Duarte-Junior G.F.; Bazílio G.S.; Borges C.L.; Parente-Rocha J.A.; de Araujo W.R.; de Siervo A.; Paixão T.L.R.C.; Coltro W.K.T., Disposable and eco-friendly electrochemical immunosensor for rapid detection of SARS-CoV-2, Talanta, 268, (2024) 125337, DOI, Article, Cited by: 26
  20. Saraiva D.P.M.; Ferreira B.; Ribeiro L.M.A.; R. L. C. Paixão T.; Bertotti M., Cost-effective quantification of uric acid using niobium oxide and graphene oxide-modified pencil-drawn electrodes on PVC substrates, Analytical Methods, 16(43), (2024) 7407-7412, DOI, Article, Cited by: 1
  21. Silva-Neto H.A.; de Lima L.F.; Rocha D.S.; Ataide V.N.; Meloni G.N.; Moro G.; Raucci A.; Cinti S.; Paixão T.R.L.C.; de Araujo W.R.; Coltro W.K.T., Recent achievements of greenness metrics on paper-based electrochemical (bio) sensors for environmental and clinical analysis, TrAC - Trends in Analytical Chemistry, 174, (2024) 117675, DOI, Review, Cited by: 42
  22. Souza S.G.G.; Silva-Neto H.A.; Rocha D.S.; de Siervo A.; Paixão T.R.L.C.; Coltro W.K.T., Hybrid Paper/Polyester-Based Laser-Induced Graphene Electrodes for Electrochemical Detection of Tadalafil, Analysis and Sensing, 4(6), (2024) e202400016, DOI, Article, Cited by: 5
  23. Veloso W.B.; Meloni G.N.; Arantes I.V.S.; Pradela-Filho L.A.; Munoz R.A.A.; Paixao T.R.L.C., Gold film deposition by infrared laser photothermal treatment on 3D-printed electrodes: electrochemical performance enhancement and application, Analyst, 149(15), (2024) 3900-3909, DOI, Article, Cited by: 17
  24. Veloso W.B.; Paixao T.R.L.C.; Meloni G.N., The Current Shortcomings and Future Possibilities of 3D Printed Electrodes, Analytical Chemistry, 96(36), (2024) 14315-14319, DOI, Review, Cited by: 42

2023 (20)

  1. Arantes I.V.S.; Ataide V.N.; Ameku W.A.; Gongoni J.L.M.; Selva J.S.G.; Nogueira H.P.; Bertotti M.; Paixão T.R.L.C., Laser-induced fabrication of gold nanoparticles onto paper substrates and their application on paper-based electroanalytical devices, Sensors and Diagnostics, 2(1), (2023) 111-121, DOI, Article, Cited by: 22
  2. Arantes I.V.S.; Crapnell R.D.; Bernalte E.; Whittingham M.J.; Paixão T.R.L.C.; Banks C.E., Mixed Graphite/Carbon Black Recycled PLA Conductive Additive Manufacturing Filament for the Electrochemical Detection of Oxalate, Analytical Chemistry, 95(40), (2023) 15086-15093, DOI, Article, Cited by: 72
  3. Ataide V.N.; Pradela Filho L.A.; Guinati B.G.S.; Moreira N.S.; Gonçalves J.D.; Ribeiro C.M.G.; Grasseschi D.; Coltro W.K.T.; Salles M.O.; Paixão T.R.L.C., Combining chemometrics and paper-based analytical devices for sensing: An overview, TrAC - Trends in Analytical Chemistry, 164, (2023) 117091, DOI, Review, Cited by: 28
  4. Ataide V.N.; Pradela-Filho L.A.; Ameku W.A.; Negahdary M.; Oliveira T.G.; Santos B.G.; Paixão T.R.L.C.; Angnes L., Paper-based electrochemical biosensors for the diagnosis of viral diseases, Microchimica Acta, 190(7), (2023) 276, DOI, Review, Cited by: 16
  5. Correia P.R.M.; Kinchin I.M.; Paixão T.R.L.C., Threshold Concepts as a Missing Piece Needed to Frame Teaching in Analytical Chemistry, Journal of Chemical Education, 100(4), (2023) 1419-1425, DOI, Review, Cited by: 8
  6. Crapnell R.D.; Arantes I.V.S.; Whittingham M.J.; Sigley E.; Kalinke C.; Janegitz B.C.; Bonacin J.A.; Paixão T.R.L.C.; Banks C.E., Utilising bio-based plasticiser castor oil and recycled PLA for the production of conductive additive manufacturing feedstock and detection of bisphenol A, Green Chemistry, 25(14), (2023) 5591-5600, DOI, Article, Cited by: 63
  7. Gongoni J.L.M.; Filho L.A.P.; De Farias D.M.; Arantes I.V.S.; Paixão T.R.L.C., Modulating the Electrochemical Response of Eco-Friendly Laser-Pyrolyzed Paper Sensors Applied to Nitrite Determination, ChemElectroChem, 10(1), (2023) e202201018, DOI, Article, Cited by: 18
  8. Lopes C.E.C.; de Faria L.V.; Araújo D.A.G.; Richter E.M.; Paixão T.R.L.C.; Dantas L.M.F.; Muñoz R.A.A.; da Silva I.S., Lab-made 3D-printed electrochemical sensors for tetracycline determination, Talanta, 259, (2023) 124536, DOI, Article, Cited by: 54
  9. M. de Farias D.; Pradela-Filho L.A.; Arantes I.V.S.; Gongoni J.L.M.; Veloso W.B.; Meloni G.N.; Paixão T.R.L.C., Sulfanilamide Electrochemical Sensor Using Phenolic Substrates and CO2 Laser Pyrolysis, ACS Applied Materials and Interfaces, 15(48), (2023) 56424-56432, DOI, Article, Cited by: 13
  10. Mouchrek C.N.; Matias T.A.; de Faria L.V.; Marra M.C.; da Paixão T.R.L.; Richter E.M.; Dantas L.M.F.; Muñoz R.A.A.; da Silva I.S., Electrochemical sensing of cysteine using a novel carbon black and cobalt phthalocyanine composite, Journal of Electroanalytical Chemistry, 950, (2023) 117902, DOI, Article, Cited by: 8
  11. Negahdary M.; Veloso W.B.; Bacil R.P.; Buoro R.M.; Gutz I.G.R.; Paixão T.R.L.C.; do Lago C.L.; Sakata S.K.; Meloni G.N.; França M.C.; de Oliveira T.G.; Ameku W.A.; Durazzo M.; Angnes L., Aptasensing of beta-amyloid (Aβ(1−42)) by a 3D-printed platform integrated with leaf-shaped gold nanodendrites, Sensors and Actuators B: Chemical, 393, (2023) 134130, DOI, Article, Cited by: 31
  12. Pradela-Filho L.A.; Gongoni J.L.M.; Arantes I.V.S.; De Farias D.M.; Paixão T.R.L.C., Controlling the Inkjet Printing Process for Electrochemical (Bio)Sensors, Advanced Materials Technologies, 8(8), (2023) 2201729, DOI, Article, Cited by: 26
  13. Pradela-Filho L.A.; Veloso W.B.; Arantes I.V.S.; Gongoni J.L.M.; de Farias D.M.; Araujo D.A.G.; Paixão T.R.L.C., Paper-based analytical devices for point-of-need applications, Microchimica Acta, 190(5), (2023) 179, DOI, Review, Cited by: 109
  14. Pradela-Filho L.A.; Veloso W.B.; Medeiros D.N.; Lins R.S.O.; Ferreira B.; Bertotti M.; Paixão T.R.L.C., Patterning (Electro)chemical Treatment-Free Electrodes with a 3D Printing Pen, Analytical Chemistry, 95(28), (2023) 10634-10643, DOI, Article, Cited by: 28
  15. Rozendo J.; Garcia M.A.S.; Lima S.L.S.; Tasić N.; Emrem B.; Fiorio J.L.; Solorzano G.; Dourado A.H.B.; Gonçalves L.M.; Paixão T.R.L.C.; Joswig J.-O.; da Silva A.G.M.; Vidinha P., How do gold-nanocrystal surface facets affect their electrocatalytic activities and the benzocaine-oxidation mechanism?, Surfaces and Interfaces, 41, (2023) 103282, DOI, Article, Cited by: 3
  16. Silva-Neto H.A.; Arantes I.V.S.; Ferreira A.L.; do Nascimento G.H.M.; Meloni G.N.; de Araujo W.R.; Paixão T.R.L.C.; Coltro W.K.T., Recent advances on paper-based microfluidic devices for bioanalysis, TrAC - Trends in Analytical Chemistry, 158, (2023) 116893, DOI, Review, Cited by: 108
  17. Siqueira G.P.; Araújo D.A.G.; de Faria L.V.; Ramos D.L.O.; Matias T.A.; Richter E.M.; Paixão T.R.L.C.; Muñoz R.A.A., A novel 3D-printed graphite/polylactic acid sensor for the electrochemical determination of 2,4,6-trinitrotoluene residues in environmental waters, Chemosphere, 340, (2023) 139796, DOI, Article, Cited by: 31
  18. Sousa L.R.; Guinati B.G.S.; Maciel L.I.L.; Baldo T.A.; Duarte L.C.; Takeuchi R.M.; Faria R.C.; Vaz B.G.; Paixão T.R.L.C.; Coltro W.K.T., Office paper and laser printing: a versatile and affordable approach for fabricating paper-based analytical devices with multimodal detection capabilities, Lab on a Chip, 24(3), (2023) 467-479, DOI, Article, Cited by: 18
  19. Veloso W.B.; Ataide V.N.; Rocha D.P.; Nogueira H.P.; de Siervo A.; Angnes L.; Muñoz R.A.A.; Paixão T.R.L.C., 3D-printed sensor decorated with nanomaterials by CO2 laser ablation and electrochemical treatment for non-enzymatic tyrosine detection, Microchimica Acta, 190(2), (2023) 63, DOI, Article, Cited by: 50
  20. Veloso W.B.; Paixão T.R.L.C.; Meloni G.N., 3D printed electrodes design and voltammetric response, Electrochimica Acta, 449, (2023) 142166, DOI, Article, Cited by: 48

2022 (9)

  1. Ameku W.A.; Negahdary M.; Lima I.S.; Santos B.G.; Oliveira T.G.; Paixão T.R.L.C.; Angnes L., Laser-Scribed Graphene-Based Electrochemical Sensors: A Review, Chemosensors, 10(12), (2022) 505, DOI, Review, Cited by: 47
  2. Arantes I.V.S.; Paixão T.R.L.C., Couple batch-injection analysis and microfluidic paper-based analytical device: A simple and disposable alternative to conventional BIA apparatus, Talanta, 240, (2022) 123201, DOI, Article, Cited by: 23
  3. Ataide V.N.; Arantes I.V.S.; Mendes L.F.; Rocha D.S.; Baldo T.A.; Coltro W.K.T.; Paixão T.R.L.C., Review - A Pencil Drawing Overview: From Graphite to Electrochemical Sensors/Biosensors Applications, Journal of the Electrochemical Society, 169(4), (2022) 047524, DOI, Review, Cited by: 26
  4. Bossard B.; Grothe R.A.; Martins A.B.; Lobato A.; Tasić N.; Paixão T.R.L.C.; Gonçalves L.M., Nanographene laser-pyrolyzed paper electrodes for the impedimetric detection of d-glucose via a molecularly imprinted polymer, Monatshefte fur Chemie, 153(12), (2022) 1129-1135, DOI, Article, Cited by: 5
  5. Mendes L.F.; Pradela-Filho L.A.; Paixão T.R.L.C., Polyimide adhesive tapes as a versatile and disposable substrate to produce CO2 laser-induced carbon sensors for batch and microfluidic analysis, Microchemical Journal, 182, (2022) 107893, DOI, Article, Cited by: 29
  6. Silva T.G.; da Paixão T.R.L.C., Development and Evaluation of Two Different Electronic Tongues Aiming to the Discrimination of Cutting Agents Found in Cocaine Seized Samples, Brazilian Journal of Analytical Chemistry, 9(34), (2022) 188-197, DOI, Article, Cited by: 4
  7. Silva-Neto H.A.; Rocha D.S.; Pradela-Filho L.A.; Paixão T.R.L.C.; Coltro W.K.T., (Bio)electrodes on paper platforms as simple and portable analytical tools for bioanalytical applications, Advances in Bioelectrochemistry, 5, (2022) 181-202, DOI, Book chapter, Cited by: 5
  8. Sposito H.G.M.; Lobato A.; Tasić N.; Maldaner A.O.; Paixão T.R.L.C.; Gonçalves L.M., Swift electrochemical sensing of diltiazem employing highly-selective molecularly-imprinted 3-amino-4-hydroxybenzoic acid, Journal of Electroanalytical Chemistry, 911, (2022) 116207, DOI, Article, Cited by: 6
  9. Stefano J.S.; Orzari L.O.; Silva-Neto H.A.; de Ataíde V.N.; Mendes L.F.; Coltro W.K.T.; Longo Cesar Paixão T.R.; Janegitz B.C., Different approaches for fabrication of low-cost electrochemical sensors, Current Opinion in Electrochemistry, 32, (2022) 100893, DOI, Review, Cited by: 118

2021 (14)

  1. Ameku W.A.; Ataide V.N.; Costa E.T.; Gomes L.R.; Napoleão-Pêgo P.; Provance D.W., Jr.; Paixão T.R.L.C.; Salles M.O.; De-Simone S.G., A pencil-lead immunosensor for the rapid electrochemical measurement of anti-diphtheria toxin antibodies, Biosensors, 11(12), (2021) 489, DOI, Article, Cited by: 5
  2. Ameku W.A.; Gonçalves J.M.; Ataide V.N.; Ferreira Santos M.S.; Gutz I.G.R.; Araki K.; Paixão T.R.L.C., Combined Colorimetric and Electrochemical Measurement Paper-Based Device for Chemometric Proof-of-Concept Analysis of Cocaine Samples, ACS Omega, 6(1), (2021) 594-605, DOI, Article, Cited by: 35
  3. Arantes I.V.S.; Gongoni J.L.M.; Mendes L.F.; de Ataide V.N.; Ameku W.A.; Garcia P.T.; de Araujo W.R.; Paixão T.R.L.C., Electrochemical paper-based analytical devices, Paper-Based Analytical Devices for Chemical Analysis and Diagnostics, (2021) 81-116, DOI, Book chapter, Cited by: 7
  4. Arantes I.V.S.; Mendes L.F.; Ataide V.N.; de Araujo W.R.; Paixão T.R.L.C., Conclusions, challenges, and next steps, Paper-Based Analytical Devices for Chemical Analysis and Diagnostics, (2021) 259-274, DOI, Book chapter, Cited by: 1
  5. Ataide V.N.; Ameku W.A.; Bacil R.P.; Angnes L.; De Araujo W.R.; Paixão T.R.L.C., Enhanced performance of pencil-drawn paper-based electrodes by laser-scribing treatment, RSC Advances, 11(3), (2021) 1644-1653, DOI, Article, Cited by: 43
  6. Ataide V.N.; Rocha D.P.; de Siervo A.; Paixão T.R.L.C.; Muñoz R.A.A.; Angnes L., Additively manufactured carbon/black-integrated polylactic acid 3Dprintedsensor for simultaneous quantification of uric acid and zinc in sweat, Microchimica Acta, 188(11), (2021) 388, DOI, Article, Cited by: 31
  7. Baldo T.A.; De Lima L.F.; Mendes L.F.; De Araujo W.R.; Paixão T.R.L.C.; Coltro W.K.T., Wearable and Biodegradable Sensors for Clinical and Environmental Applications, ACS Applied Electronic Materials, 3(1), (2021) 68-100, DOI, Review, Cited by: 89
  8. de Araujo W.R.; Paixão T.R.L.C., Paper-based Analytical Devices for Chemical Analysis and Diagnostics, Paper-Based Analytical Devices for Chemical Analysis and Diagnostics, (2021) 1-280, DOI, Book, Cited by: 3
  9. de Araujo W.R.; Paixão T.R.L.C., Introduction remarks for paper-based analytical devices and timeline, Paper-Based Analytical Devices for Chemical Analysis and Diagnostics, (2021) 1-13, DOI, Book chapter, Cited by: 3
  10. Freitas R.C.; Orzari L.O.; Ferreira L.M.C.; Paixão T.R.L.C.; Coltro W.K.T.; Vicentini F.C.; Janegitz B.C., Electrochemical determination of melatonin using disposable self-adhesive inked paper electrode, Journal of Electroanalytical Chemistry, 897, (2021) 115550, DOI, Article, Cited by: 57
  11. Grothe R.A.; Lobato A.; Mounssef B.; Tasić N.; Braga A.A.C.; Maldaner A.O.; Aldous L.; Paixão T.R.L.C.; Gonçalves L.M., Electroanalytical profiling of cocaine samples by means of an electropolymerized molecularly imprinted polymer using benzocaine as the template molecule, Analyst, 146(5), (2021) 1747-1759, DOI, Article, Cited by: 25
  12. Paixão T.R.L.C.; Garcia C.D., Chemistry of paper—properties, modification strategies, and uses in bioanalytical chemistry, Paper-Based Analytical Devices for Chemical Analysis and Diagnostics, (2021) 15-39, DOI, Book chapter, Cited by: 3
  13. Rocha D.P.; Ataide V.N.; de Siervo A.; Gonçalves J.M.; Muñoz R.A.A.; Paixão T.R.L.C.; Angnes L., Reagentless and sub-minute laser-scribing treatment to produce enhanced disposable electrochemical sensors via additive manufacture, Chemical Engineering Journal, 425, (2021) 130594, DOI, Article, Cited by: 96
  14. Tasić N.; Cavalcante L.; Deffune E.; Góes M.S.; Paixão T.R.L.C.; Gonçalves L.M., Probeless and label-free impedimetric biosensing of D-dimer using gold nanoparticles conjugated with dihexadecylphosphate on screen-printed carbon electrodes, Electrochimica Acta, 397, (2021) 139244, DOI, Article, Cited by: 19

2020 (9)

  1. Aguiar J.G.; Kinchin I.M.; Correia P.R.M.; Infante-Malachias M.E.; Paixão T.R.L.C., Uncovering and comparing academics’ views of teaching using the pedagogic frailty model as a tool: a case study in science education, Educational Research, 62(4), (2020) 434-454, DOI, Article, Cited by: 1
  2. Ataide V.N.; Mendes L.F.; Gama L.I.L.M.; De Araujo W.R.; Paixaõ T.R.L.C., Electrochemical paper-based analytical devices: Ten years of development, Analytical Methods, 12(8), (2020) 1030-1054, DOI, Review, Cited by: 172
  3. Clark K.M.; Skrajewski L.; Benavidez T.E.; Mendes L.F.; Bastos E.L.; Dörr F.A.; Sachdeva R.; Ogale A.A.; Paixão T.R.L.C.; Garcia C.D., Fluorescent patterning of paper through laser engraving, Soft Matter, 16(33), (2020) 7659-7666, DOI, Article, Cited by: 16
  4. Dignani M.T.; Bioni T.A.; Paixão T.R.L.C.; El Seoud O.A., Cellulose Dissolution in Mixtures of Ionic Liquids and Dimethyl Sulfoxide: A Quantitative Assessment of the Relative Importance of Temperature and Composition of the Binary Solvent, Molecules, 25(24), (2020) 5975, DOI, Article, Cited by: 10
  5. e Silva R.F.; Longo Cesar Paixão T.R.; Der Torossian Torres M.; de Araujo W.R., Simple and inexpensive electrochemical paper-based analytical device for sensitive detection of Pseudomonas aeruginosa, Sensors and Actuators, B: Chemical, 308, (2020) 127669, DOI, Article, Cited by: 60
  6. Mendes L.F.; de Siervo A.; Reis de Araujo W.; Longo Cesar Paixão T.R., Reagentless fabrication of a porous graphene-like electrochemical device from phenolic paper using laser-scribing, Carbon, 159, (2020) 110-118, DOI, Article, Cited by: 77
  7. Paixão T.R.L.C., Measuring Electrochemical Surface Area of Nanomaterials versus the Randles−Ševčík Equation, ChemElectroChem, 7(16), (2020) 3414-3415, DOI, Article, Cited by: 172
  8. Tasić N.; Bezerra Martins A.; Yifei X.; Sousa Góes M.; Martín-Yerga D.; Mao L.; Paixão T.R.L.C.; Moreira Gonçalves L., Insights into electrochemical behavior in laser-scribed electrochemical paper-based analytical devices, Electrochemistry Communications, 121, (2020) 106872, DOI, Article, Cited by: 31
  9. Tasić N.; Paixão T.R.L.C.; Gonçalves L.M., Biosensing of D-dimer, making the transition from the central hospital laboratory to bedside determination, Talanta, 207, (2020) 120270, DOI, Review, Cited by: 23

2019 (12)

  1. Ameku W.A.; De Araujo W.R.; Rangel C.J.; Ando R.A.; Paixão T.R.L.C., Gold Nanoparticle Paper-Based Dual-Detection Device for Forensics Applications, ACS Applied Nano Materials, 2(9), (2019) 5460-5468, DOI, Article, Cited by: 69
  2. Bezerra Martins A.; Lobato A.; Tasić N.; Perez-Sanz F.J.; Vidinha P.; Paixão T.R.L.C.; Moreira Gonçalves L., Laser-pyrolyzed electrochemical paper-based analytical sensor for sulphite analysis, Electrochemistry Communications, 107, (2019) 106541, DOI, Article, Cited by: 51
  3. Cardoso R.M.; Castro S.V.F.; Silva M.N.T.; Lima A.P.; Santana M.H.P.; Nossol E.; Silva R.A.B.; Richter E.M.; Paixão T.R.L.C.; Muñoz R.A.A., 3D-printed flexible device combining sampling and detection of explosives, Sensors and Actuators, B: Chemical, 292, (2019) 308-313, DOI, Article, Cited by: 130
  4. de Castro L.F.; de Freitas S.V.; Duarte L.C.; de Souza J.A.C.; Paixão T.R.L.C.; Coltro W.K.T., Salivary diagnostics on paper microfluidic devices and their use as wearable sensors for glucose monitoring, Analytical and Bioanalytical Chemistry, 411(19), (2019) 4919-4928, DOI, Article, Cited by: 181
  5. Dias A.A.; Chagas C.L.S.; Silva-Neto H.D.A.; Lobo-Junior E.O.; Sgobbi L.F.; De Araujo W.R.; Paixaõ T.R.L.C.; Coltro W.K.T., Environmentally Friendly Manufacturing of Flexible Graphite Electrodes for a Wearable Device Monitoring Zinc in Sweat, ACS Applied Materials and Interfaces, 11(43), (2019) 39484-39492, DOI, Article, Cited by: 50
  6. Ferreira P.C.; Ataíde V.N.; Silva Chagas C.L.; Angnes L.; Tomazelli Coltro W.K.; Longo Cesar Paixão T.R.; Reis de Araujo W., Wearable electrochemical sensors for forensic and clinical applications, TrAC - Trends in Analytical Chemistry, 119, (2019) 115622, DOI, Review, Cited by: 170
  7. Gama M.R.; Melchert W.R.; Paixão T.R.L.C.; Rocha F.R.P., An overview of the brazilian contributions to green analytical chemistry, Anais da Academia Brasileira de Ciencias, 91, (2019) e20180294, DOI, Article, Cited by: 14
  8. Mendes L.F.; Souza e Silva Â.R.; Bacil R.P.; Serrano S.H.P.; Angnes L.; Paixão T.R.L.C.; de Araujo W.R., Forensic electrochemistry: Electrochemical study and quantification of xylazine in pharmaceutical and urine samples, Electrochimica Acta, 295, (2019) 726-734, DOI, Article, Cited by: 37
  9. Paixão T.R.L.C., Portable analytical techniques for forensic applications, Brazilian Journal of Analytical Chemistry, 6(22), (2019) 8-9, DOI, Note, Cited by: 1
  10. Paixão T.R.L.C.; Salles M.O.; Coltro W.K.T., CHAPTER 12: Future Challenges and Point-of-view, RSC Detection Science, 2019-January(13), (2019) 275-280, DOI, Book chapter, Cited by: 0
  11. Paixão T.R.L.C.; Salles M.O.; Coltro W.K.T., CHAPTER 1: Introduction to Chemical Analysis Focusing on Forensic Chemical Sensing and Detection, RSC Detection Science, 2019-January(13), (2019) 1-6, DOI, Book chapter, Cited by: 2
  12. Silva T.G.; Paixao T.R.L.C., Development of a colorimetric array to discriminate cutting agents in seized cocaine samples, ISOEN 2019 - 18th International Symposium on Olfaction and Electronic Nose, Proceedings, (2019) 8823260, DOI, Conference paper, Cited by: 2

2018 (6)

  1. da Silva G.O.; de Araujo W.R.; Paixão T.R.L.C., Portable and low-cost colorimetric office paper-based device for phenacetin detection in seized cocaine samples, Talanta, 176, (2018) 674-678, DOI, Article, Cited by: 84
  2. de Araujo W.R.; Cardoso T.M.G.; da Rocha R.G.; Santana M.H.P.; Muñoz R.A.A.; Richter E.M.; Paixão T.R.L.C.; Coltro W.K.T., Portable analytical platforms for forensic chemistry: A review, Analytica Chimica Acta, 1034, (2018) 1-21, DOI, Review, Cited by: 256
  3. Dias A.A.; Cardoso T.M.G.; Chagas C.L.S.; Oliveira V.X.G.; Munoz R.A.A.; Henry C.S.; Santana M.H.P.; Paixão T.R.L.C.; Coltro W.K.T., Detection of Analgesics and Sedation Drugs in Whiskey Using Electrochemical Paper-based Analytical Devices, Electroanalysis, 30(10), (2018) 2250-2257, DOI, Article, Cited by: 71
  4. Moreira R.C.; Costa B.M.C.; Marra M.C.; Santana M.H.P.; Maldaner A.O.; Botelho É.D.; Paixão T.R.L.C.; Richter E.M.; Coltro W.K.T., Screening of seized cocaine samples using electrophoresis microchips with integrated contactless conductivity detection, Electrophoresis, 39(17), (2018) 2188-2194, DOI, Article, Cited by: 15
  5. Pereira De Oliveira L.; Rocha D.P.; Reis De Araujo W.; Abarza Muñoz R.A.; Longo Cesar Paixão T.R.; Oliveira Salles M., Forensics in hand: New trends in forensic devices (2013-2017), Analytical Methods, 10(43), (2018) 5135-5163, DOI, Review, Cited by: 89
  6. Santos M.S.F.; Ameku W.A.; Gutz I.G.R.; Paixão T.R.L.C., Gold leaf: From gilding to the fabrication of disposable, wearable and low-cost electrodes, Talanta, 179, (2018) 507-511, DOI, Article, Cited by: 32

2017 (10)

  1. Albuquerque L.G.R.; Fioroto A.M.; Paixão T.R.L.C.; Oliveira P.V., Evaluation of Multi-Mixtures of Acids for the Sample Preparation of Organic Soil Amendments for Multi-Element Determination by ICP OES, Communications in Soil Science and Plant Analysis, 48(18), (2017) 2210-2217, DOI, Article, Cited by: 8
  2. Bueno L.; de Araujo W.R.; Paixão T.R.L.C., Point of care (POC) medical biosensors for cancer detection, Medical Biosensors for Point of Care (POC) Applications, (2017) 183-201, DOI, Book chapter, Cited by: 13
  3. de Araujo W.R.; Frasson C.M.R.; Ameku W.A.; Silva J.R.; Angnes L.; Paixão T.R.L.C., Single-Step Reagentless Laser Scribing Fabrication of Electrochemical Paper-Based Analytical Devices, Angewandte Chemie - International Edition, 56(47), (2017) 15113-15117, DOI, Article, Cited by: 182
  4. Fioroto A.M.; Kelmer G.A.R.; Albuquerque L.G.R.; César Paixão T.R.L.; Oliveira P.V., Microwave-assisted digestion with a single reaction chamber for mineral fertilizer analysis by inductively coupled plasma optical emission spectrometry, Spectroscopy Letters, 50(10), (2017) 550-556, DOI, Article, Cited by: 6
  5. Freitas J.M.; Ramos D.L.O.; Sousa R.M.F.; Paixão T.R.L.C.; Santana M.H.P.; Muñoz R.A.A.; Richter E.M., A portable electrochemical method for cocaine quantification and rapid screening of common adulterants in seized samples, Sensors and Actuators, B: Chemical, 243, (2017) 557-565, DOI, Article, Cited by: 112
  6. Garcia Cardozo C.; Melo Cardoso R.; Matheus Guimarães Selva T.; Evaristo de Carvalho A.; Torres Pio dos Santos W.; Regis Longo Cesar Paixão T.; Amorim Bezerra da Silva R., Batch Injection Analysis-Multiple Pulse Amperometric Fingerprint: A Simple Approach for Fast On-site Screening of Drugs, Electroanalysis, 29(12), (2017) 2847-2854, DOI, Article, Cited by: 11
  7. Lima L.C.; Paixão T.R.L.C.; Nomura C.S.; Gaubeur I., Combination of Dispersive Liquid-Liquid Microextraction and Emulsion Breaking for the Determination of Cu(II) and Pb(II) in Biodiesel and Oil Samples, Energy and Fuels, 31(9), (2017) 9491-9497, DOI, Article, Cited by: 11
  8. Selva T.M.G.; Araujo W.R.; Paixao T.R.L.C., Electrochemical sensor for discrimination of carbamates and organophosphorus pesticides, ISOEN 2017 - ISOCS/IEEE International Symposium on Olfaction and Electronic Nose, Proceedings, (2017) 7968922, DOI, Conference paper, Cited by: 2
  9. Selva T.M.G.; de Araujo W.R.; Bacil R.P.; Paixão T.R.L.C., Study of Electrochemical Oxidation and Quantification of the Pesticide Pirimicarb Using a Boron-Doped Diamond Electrode, Electrochimica Acta, 246, (2017) 588-596, DOI, Article, Cited by: 41
  10. Silva T.G.; Paixao T.R.L.C., Development of an electronic tongue to distinguish cutting agents in cocaine samples to understand drug trafficking, ISOEN 2017 - ISOCS/IEEE International Symposium on Olfaction and Electronic Nose, Proceedings, (2017) 7968925, DOI, Conference paper, Cited by: 3

2016 (9)

  1. De Araujo W.R.; Reddy S.M.; Paixão T.R.L.C., Introduction of materials used in chemical sensors, Materials for Chemical Sensing, (2016) 1-5, DOI, Book chapter, Cited by: 1
  2. Maldaner A.O.; Botelho É.D.; Zacca J.J.; Melo R.C.A.; Costa J.L.; Zancanaro I.; Oliveira C.S.L.; Kasakoff L.B.; Paixão T.R.L.C., Chemical profiling of street cocaine from different brazilian regions, Journal of the Brazilian Chemical Society, 27(4), (2016) 719-726, DOI, Article, Cited by: 37
  3. Paixão T.R.L.C.; Reddy S.M., Preface, Materials for Chemical Sensing, (2016) vi-viii, DOI, Editorial, Cited by: 0
  4. Paixão T.R.L.C.; Reddy S.M., Materials for chemical sensing, Materials for Chemical Sensing, (2016) 1-268, DOI, Book, Cited by: 11
  5. Salles M.O.; Araujo W.R.; Paixão T.R.L.C., Development of a molecularly imprinted modified electrode to evaluate phenacetin based on the preconcentration of acetaminophen, Journal of the Brazilian Chemical Society, 27(1), (2016) 54-61, DOI, Article, Cited by: 19
  6. Selva T.M.G.; Da Paixão T.R.L.C., Boron-doped diamond as a sensor for the classification of carbamate pesticides using a chemometric approach, New Journal of Chemistry, 40(3), (2016) 2514-2520, DOI, Article, Cited by: 14
  7. Selva T.M.G.; Ferreira T.L.; Paixão T.R.L.C., Information extraction techniques in chemical sensing, Materials for Chemical Sensing, (2016) 7-27, DOI, Book chapter, Cited by: 2
  8. Selva T.M.G.; Paixão T.R.L.C., Electrochemical quantification of propoxur using a boron-doped diamond electrode, Diamond and Related Materials, 66, (2016) 113-118, DOI, Article, Cited by: 17
  9. Silva T.G.; De Araujo W.R.; Muñoz R.A.A.; Richter E.M.; Santana M.H.P.; Coltro W.K.T.; Paixão T.R.L.C., Simple and Sensitive Paper-Based Device Coupling Electrochemical Sample Pretreatment and Colorimetric Detection, Analytical Chemistry, 88(10), (2016) 5145-5151, DOI, Article, Cited by: 72

2015 (9)

  1. Bueno L.; Cottell A.; Reddy S.M.; Paixão T.R.L.C., Coupling dye-integrated polymeric membranes with smartphone detection to classify bacteria, RSC Advances, 5(119), (2015) 97962-97965, DOI, Article, Cited by: 11
  2. Bueno L.; Meloni G.N.; Reddy S.M.; Paixão T.R.L.C., Use of plastic-based analytical device, smartphone and chemometric tools to discriminate amines, RSC Advances, 5(26), (2015) 20148-20154, DOI, Article, Cited by: 53
  3. de Araujo W.R.; Maldaner A.O.; Costa J.L.; Paixão T.R.L.C., Development of an electroanalytical method for the quantification of aminopyrine in seized cocaine samples, Microchemical Journal, 121, (2015) 213-218, DOI, Article, Cited by: 14
  4. Garcia S.; Gerondi F.; Paixão T.R.L.C.; Arruda M.A.Z.; Gaubeur I., Cadmium and lead determination in freshwater and hemodialysis solutions by thermospray flame furnace atomic absorption spectrometry following cloud point extraction, Journal of the Brazilian Chemical Society, 26(3), (2015) 490-497, DOI, Article, Cited by: 13
  5. Kim J.; De Araujo W.R.; Samek I.A.; Bandodkar A.J.; Jia W.; Brunetti B.; Paixão T.R.L.C.; Wang J., Wearable temporary tattoo sensor for real-time trace metal monitoring in human sweat, Electrochemistry Communications, 51, (2015) 41-45, DOI, Article, Cited by: 235
  6. Kim J.; Imani S.; de Araujo W.R.; Warchall J.; Valdés-Ramírez G.; Paixão T.R.L.C.; Mercier P.P.; Wang J., Wearable salivary uric acid mouthguard biosensor with integrated wireless electronics, Biosensors and Bioelectronics, 74, (2015) 1061-1068, DOI, Article, Cited by: 655
  7. Nazayan R.; Reddy S.M.; Paixâo T.R.L.C., Preface, Materials Research Society Symposium Proceedings, 1763, (2015), DOI, Editorial, Cited by: 0
  8. Selva T.M.G.; ReisdeAraujo W.; CesardaPaixão T.R.L., Non-Invasive Salivary Electrochemical Quantification of Paraquat Poisoning Using Boron Doped Diamond Electrode, Electroanalysis, 27(7), (2015) 1642-1648, DOI, Article, Cited by: 17
  9. Silva T.G.; Salles M.O.; Paixão T.R.L.C., Investigation of the use of glassy carbon electrode modified with ruthenium hexacyanoferrate for detection of procaine; [Investigação do uso de eletrodo de carbono vítreo modificado com hexacianoferrato de rutênio para detecção de procaína investigação do uso de eletrodo de carbono vítreo modificado com hexacianoferrato de rutênio para detecção de procaína], Quimica Nova, 38(1), (2015) 85-90, DOI, Article, Cited by: 3

2014 (5)

  1. Bueno L.; de Araujo W.R.; Salles M.O.; Kussuda M.Y.; Paixão T.R.L.C., Voltammetric electronic tongue for discrimination of milk adulterated with urea, formaldehyde and melamine, Chemosensors, 2(4), (2014) 251-266, DOI, Article, Cited by: 50
  2. Bueno L.; El-Sharif H.F.; Salles M.O.; Boehm R.D.; Narayan R.J.; Paixão T.R.L.C.; Reddy S.M., MIP-based electrochemical protein profiling, Sensors and Actuators, B: Chemical, 204, (2014) 88-95, DOI, Article, Cited by: 32
  3. De Araujo W.R.; Paixão T.R.L.C., Use of copper electrode for melamine quantification in milk, Electrochimica Acta, 117, (2014) 379-384, DOI, Article, Cited by: 28
  4. Salles M.O.; Meloni G.N.; De Araujo W.R.; Paixão T.R.L.C., Explosive colorimetric discrimination using a smartphone, paper device and chemometrical approach, Analytical Methods, 6(7), (2014) 2047-2052, DOI, Article, Cited by: 120
  5. Salles M.O.; Paixão T.R.L.C., Application of pattern recognition techniques in the development of electronic tongues, RSC Detection Science, 2014-January(3), (2014) 197-229, Article, Cited by: 3

2013 (2)

  1. Da Silva I.S.; De Araujo W.R.; Paixão T.R.L.C.; Angnes L., Direct nitrate sensing in water using an array of copper-microelectrodes from flat flexible cables, Sensors and Actuators, B: Chemical, 188, (2013) 94-98, DOI, Article, Cited by: 44
  2. Junqueira J.R.C.; De Araujo W.R.; Salles M.O.; Paixão T.R.L.C., Flow injection analysis of picric acid explosive using a copper electrode as electrochemical detector, Talanta, 104, (2013) 162-168, DOI, Article, Cited by: 77

2012 (5)

  1. Dantas L.M.F.; DeSouza A.P.R.; Castro P.S.; Paixão T.R.L.C.; Bertotti M., SECM Studies on the Electrocatalytic Oxidation of Glycerol at Copper Electrodes in Alkaline Medium, Electroanalysis, 24(8), (2012) 1778-1782, DOI, Article, Cited by: 15
  2. De Araújo W.R.; Salles M.O.; Paixão T.R.L.C., Development of an enzymeless electroanalytical method for the indirect detection of creatinine in urine samples, Sensors and Actuators, B: Chemical, 173, (2012) 847-851, DOI, Article, Cited by: 53
  3. Lima A.S.; Salles M.O.; Ferreira T.L.; Paixão T.R.L.C.; Bertotti M., Scanning electrochemical microscopy investigation of nitrate reduction at activated copper cathodes in acidic medium, Electrochimica Acta, 78, (2012) 446-451, DOI, Article, Cited by: 30
  4. Maruta A.H.; Paixão T.R.L.C., Flow injection analysis of free glycerol in biodiesel using a copper electrode as an amperometric detector, Fuel, 91(1), (2012) 187-191, DOI, Article, Cited by: 28
  5. Salles M.O.; Bertotti M.; Paixão T.R.L.C., Use of a gold microelectrode for discrimination of gunshot residues, Sensors and Actuators, B: Chemical, 166-167, (2012) 848-852, DOI, Article, Cited by: 18

2011 (6)

  1. Assumpção M.H.M.T.; De Souza R.F.B.; Rascio D.C.; Silva J.C.M.; Calegaro M.L.; Gaubeur I.; Paixão T.R.L.C.; Hammer P.; Lanza M.R.V.; Santos M.C., A comparative study of the electrogeneration of hydrogen peroxide using Vulcan and Printex carbon supports, Carbon, 49(8), (2011) 2842-2851, DOI, Article, Cited by: 199
  2. Bueno L.; Paixão T.R.L.C., A copper interdigitated electrode and chemometrical tools used for the discrimination of the adulteration of ethanol fuel with water, Talanta, 87(1), (2011) 210-215, DOI, Article, Cited by: 39
  3. de Araújo W.R.; Paixão T.R.L.C., Amperometric detection of ranitidine using glassy carbon modified with ruthenium oxide hexacyanoferrate adapted in a flow injection system, Electroanalysis, 23(11), (2011) 2549-2554, DOI, Article, Cited by: 10
  4. Naozuka J.; da Veiga M.A.M.S.; Richter E.M.; Paixão T.R.L.C.; Angnes L.; Oliveira P.V., Use of Metals and Anion Species with Chemometrics Tools for Classification of Unprocessed and Processed Coconut Waters, Food Analytical Methods, 4(1), (2011) 49-56, DOI, Article, Cited by: 6
  5. Novakowski W.; Bertotti M.; Paixão T.R.L.C., Use of copper and gold electrodes as sensitive elements for fabrication of an electronic tongue: Discrimination of wines and whiskies, Microchemical Journal, 99(1), (2011) 145-151, DOI, Article, Cited by: 56
  6. Peña R.C.; Gamboa J.C.M.; Bertotti M.; Paixão T.R.L.C., Studies on the electrocatalytic reduction of hydrogen peroxide on a glassy carbon electrode modified with a ruthenium oxide hexacyanoferrate film, International Journal of Electrochemical Science, 6(2), (2011) 394-403, DOI, Article, Cited by: 21

2010 (2)

  1. Gamboa J.C.M.; Peña R.C.; Paixão T.R.L.C.; Lima A.S.; Bertotti M., Activated Copper Cathodes as Sensors for Nitrite Analysis, Electroanalysis, 22(22), (2010) 2627-2632, DOI, Article, Cited by: 5
  2. Matos I.O.; Ferreira T.L.; Paixão T.R.L.C.; Lima Alex.S.; Bertotti M.; Alves W.A., Approaches for multicopper oxidases in the design of electrochemical sensors for analytical applications, Electrochimica Acta, 55(18), (2010) 5223-5229, DOI, Article, Cited by: 15

2009 (4)

  1. Gamboa J.C.M.; Peña R.C.; Paixão T.R.L.C.; Bertotti M., A renewable copper electrode as an amperometric flow detector for nitrate determination in mineral water and soft drink samples, Talanta, 80(2), (2009) 581-585, DOI, Article, Cited by: 81
  2. Paixão T.R.L.C.; Bertotti M., Fabrication of disposable voltammetric electronic tongues by using Prussian Blue films electrodeposited onto CD-R gold surfaces and recognition of milk adulteration, Sensors and Actuators, B: Chemical, 137(1), (2009) 266-273, DOI, Article, Cited by: 85
  3. Paixão T.R.L.C.; Bertotti M., Methods for fabrication of microelectrodes towards detection in microenvironments; [Métodos para fabricação de microeletrodos visando a detecção em microambientes], Quimica Nova, 32(5), (2009) 1306-1314, DOI, Article, Cited by: 8
  4. Peña R.C.; Gamboa J.C.M.; Paixão T.R.L.C.; Bertotti M., Flow injection amperometric determination of hydrogen peroxide in household commercial products with a ruthenium oxide hexacyanoferrate modified electrode, Microchimica Acta, 166(3-4), (2009) 277-281, DOI, Article, Cited by: 10

2008 (4)

  1. Paixão T.R.L.C.; Barbosa L.F.; Carrì M.T.; Medeiros M.H.G.; Bertotti M., Continuous monitoring of ascorbate transport through neuroblastoma cells with a ruthenium oxide hexacyanoferrate modified microelectrode, Analyst, 133(11), (2008) 1605-1610, DOI, Article, Cited by: 15
  2. Paixão T.R.L.C.; Bertotti M., Studies on the kinetics of ascorbate oxidation at a ruthenium oxide hexacyanoferrate modified electrode towards the detection at microenvironments, Electrochemistry Communications, 10(8), (2008) 1180-1183, DOI, Article, Cited by: 11
  3. Paixão T.R.L.C.; Bertotti M., Ruthenium oxide hexacyanoferrate modified electrode for hydrogen peroxide detection, Electroanalysis, 20(15), (2008) 1671-1677, DOI, Article, Cited by: 33
  4. Paixão T.R.L.C.; Bertotti M., FIA determination of ascorbic acid at low potential using a ruthenium oxide hexacyanoferrate modified carbon electrode, Journal of Pharmaceutical and Biomedical Analysis, 46(3), (2008) 528-533, DOI, Article, Cited by: 49

2007 (7)

  1. Ferreira T.L.; Paixão T.R.L.C.; Richter E.M.; El Seoud O.A.; Bertotti M., Use of microdevices to determine the diffusion coefficient of electrochemically generated species: Application to binary solvent mixtures and micellar solutions, Journal of Physical Chemistry B, 111(43), (2007) 12478-12484, DOI, Article, Cited by: 21
  2. Paixão T.R.L.C.; Bertotti M., Electrocatalytic oxidation of deoxyguanosine on a glassy carbon electrode modified with a ruthenium oxide hexacyanoferrate film, Electrochimica Acta, 52(5), (2007) 2181-2188, DOI, Article, Cited by: 38
  3. Paixão T.R.L.C.; Cardoso J.L.; Bertotti M., The use of a copper microelectrode to measure the ethanol content in gasohol samples, Fuel, 86(7-8), (2007) 1185-1191, DOI, Article, Cited by: 24
  4. Paixão T.R.L.C.; Cardoso J.L.; Bertotti M., Determination of nitrate in mineral water and sausage samples by using a renewable in situ copper modified electrode, Talanta, 71(1), (2007) 186-191, DOI, Article, Cited by: 88
  5. Paixão T.R.L.C.; Garcia C.C.M.; Medeiros M.H.G.; Bertotti M., Flow injection amperometric detection of 2′-deoxyguanosine at a ruthenium oxide hexacyanoferrate modified electrode, Analytical Chemistry, 79(14), (2007) 5392-5398, DOI, Article, Cited by: 22
  6. Pedrosa V.A.; Paixão T.R.L.C.; Freire R.S.; Bertotti M., Studies on the electrochemical behavior of a cystine self-assembled monolayer modified electrode using ferrocyanide as a probe, Journal of Electroanalytical Chemistry, 602(2), (2007) 149-155, DOI, Article, Cited by: 18
  7. Salles M.O.; Paixão T.R.L.C.; Bertotti M., Hydrogen peroxide monitoring in photo-Fenton reactions by using a metal hexacyanoferrate modified electrode, International Journal of Electrochemical Science, 2(3), (2007) 248-256, Article, Cited by: 14

2006 (5)

  1. Lowinsohn D.; Peres H.E.M.; Kosminsky L.; Paixão T.R.L.C.; Ferreira T.L.; Ramirez-Fernandez F.J.; Bertotti M., Design and fabrication of a microelectrode array for iodate quantification in small sample volumes, Sensors and Actuators, B: Chemical, 113(1), (2006) 80-87, DOI, Article, Cited by: 32
  2. Paixão T.R.L.C.; Lowinsohn D.; Bertotti M., Use of an electrochemically etched platinum microelectrode for ascorbic acid mapping in oranges, Journal of Agricultural and Food Chemistry, 54(8), (2006) 3072-3077, DOI, Article, Cited by: 26
  3. Paixão T.R.L.C.; Ponzio E.A.; Torresi R.M.; Bertotti M., EQCM behavior of copper anodes in alkaline medium and characterization of the electrocatalysis of ethanol oxidation by Cu(III), Journal of the Brazilian Chemical Society, 17(2), (2006) 374-381, DOI, Article, Cited by: 19
  4. Paixão T.R.L.C.; Richter E.M.; Brito-Neto J.G.A.; Bertotti M., The use of a new twin-electrode thin-layer cell to the study of homogeneous processes coupled to electrode reactions, Journal of Electroanalytical Chemistry, 596(2), (2006) 101-108, DOI, Article, Cited by: 22
  5. Paixão T.R.L.C.; Richter E.M.; Brito-Neto J.G.A.; Bertotti M., Fabrication of a new generator-collector electrochemical micro-device: Characterization and applications, Electrochemistry Communications, 8(1), (2006) 9-14, DOI, Article, Cited by: 33

2004 (1)

  1. Paixão T.R.L.C.; Bertotti M., Development of a breath alcohol sensor using a copper electrode in an alkaline medium, Journal of Electroanalytical Chemistry, 571(1), (2004) 101-109, DOI, Article, Cited by: 49

2003 (3)

  1. Paixaõ T.R.L.C.; Matos R.C.; Bertotti M., Diffusion layer titration of dipyrone in pharmaceuticals at a dual-band electrochemical cell, Talanta, 61(5), (2003) 725-732, DOI, Article, Cited by: 26
  2. Paixão T.R.L.C.; Matos R.C.; Bertotti M., Development of a Dual-Band Amperometric Detector for Determination of Ascorbic Acid and Glucose, Electroanalysis, 15(23-24), (2003) 1884-1889, DOI, Article, Cited by: 28
  3. Paixão T.R.L.C.; Matos R.C.; Bertotti M., Design and characterisation of a thin-layered dual-band electrochemical cell, Electrochimica Acta, 48(6), (2003) 691-698, DOI, Article, Cited by: 33

2002 (2)

  1. Paixão T.R.L.C; Kosminsky L.; Bertotti M., Use of electrochemically pretreated glassy carbon electrodes as pH sensors in potentiometric titrations, Sensors and Actuators, B: Chemical, 87(1), (2002) 41-46, DOI, Article, Cited by: 24
  2. Paixão T.R.L.C.; Corbo D.; Bertotti M., Amperometric determination of ethanol in beverages at copper electrodes in alkaline medium, Analytica Chimica Acta, 472(1-2), (2002) 123-131, DOI, Article, Cited by: 109

2001 (1)

  1. Rocha J.R.C.; Kosminsky L.; Paixão T.R.L.C.; Bertotti M., Anodic oxidation of nitrite at a molybdenum oxide layer, Electroanalysis, 13(2), (2001) 155-160, DOI, Article, Cited by: 40