AN17. Height tracking SECM to measure mechanically exfoliated graphite. Scanning Probe Electrochemistry
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The use of height tracking SECM to measure mechanically exfoliated graphite – Scanning Probes. Application Note 17.
Advantages of the intermittent contact SECM : two examples in corrosion – Scanning Probes – Application Note 6
AN 6. Advantages of the intermittent contact SECM : two examples in corrosion. Scanning Probe Electrochemistry.
ac-SECM to investigate battery electrode materials in non-aqueous electrolyte – Scanning Probes – Application Note 7
AN 7. ac-SECM to investigate battery electrode materials in non-aqueous electrolyte. Scanning Probe Electrochemistry.
Investigation of an interdigitated array electrode using ic-SECM – Scanning Probes – Application Note 13
AN13. Investigation of an interdigitated array electrode using ic-SECM.. Scanning probe electrochemistry
SECM height relief with OSP: an application in sensors – Scanning Probes – Application Note 3
AN3. SECM height relief with OSP: an application in sensors. Scanning Probe Electrochemistry.
SECM height relief with OSP: An application in corrosion – Scanning Probes – Application Note 2
AN2. SECM height relief with OSP: An application in corrosion. Scanning Probe Electrochemistry.
Use of ionic liquids in SECM experiments to distinguish effects of temperature and water in organic coating swelling
CITATION: D Trinh, C Vosgien-Lacombre, G Bouvet
Intermittent Contact (ic) SECM for relief of major topographic features – Scanning Probes – Application Note 16
Scanning Probe Electrochemistry. AN 16. Application Note 16
dc- and ac-SECM Measurements on Si Nanowire Arrays – Scanning Probes – Application Note 10
Application Note 10. AN 10. Scanning Probe Electrochemistry.
SCAN-Lab Technical Notes 15: 5 μm SECM Probes: Description, Advantage, and User Guidelines
5 μm SECM Probes: Description, Advantage, and User Guidelines
SCAN-Lab Technical Notes 12: ac-SECM and LEIS: differences and similarities
ac-SECM and LEIS: differences and similarities
Measurement of a nano-patterned gold sample by ic-/ac-SECM – Scanning Probes – Application Note 11
AN11. Measurement of a nano-patterned gold sample by ic-/ac-SECM. Scanning Probe Electrochemistry.
Using the SECM150 to Measure an NMC Battery Electrode – Scanning Probes. Application Note 21
AN21. Measure an NMC Battery Electrode. Scanning probe electrochemistry
Investigation of the diffusion of ferricyanide through porous membranes using the SECM150 – Scanning Probes. Application Note 19.
AN19. Investigation of the diffusion of ferricyanide through porous membranes using the SECM150. Scanning Probe Electrochemistry
Ic-SECM – Bipolar Plates – Scanning Probes – Application Note 23
Ic-SECM - Bipolar Plates - Scanning Probes - Application Note 23
SCAN-Lab Technical Notes 11: Determining the probe diameter and RG ratio in an SECM experiment
Determining the probe diameter and RG ratio in an SECM experiment
SCAN-Lab Technical Notes 06: Ultra Micro-Electrodes (UMEs) for SECM techniques
Ultra Micro-Electrodes (UMEs) for SECM techniques
SCAN-Lab Technical Notes 18: Using the SECM150 in a Controlled Atmosphere in a Glove Bag
SECM150 in a Controlled Atmosphere in a Glove Bag
SECM for biosensors – Tutorial – Sensors
Presentation outlining the principles of dc-SECM, SECM and bio-sensors
Achieving micron scale measurements using the SECM150 – Scanning Probes. Application Note 18
AN18. Achieving micron scale measurements. Scanning Probe Electrochemistry.
Introduction to the USB-PIO: measuring the effect of light on a live leaf – Scanning Probes. Application Note 15
AN 15. Application Note 15. Scanning Probe Electrochemistry
Introduction to the Modular Map Experiment: an Interdigitated Array electrode example – Scanning Probes – Application Note 14
AN 14. Introduction to the Modular Map Experiment: an Interdigitated Array electrode example. Scanning Probe Electrochemistry.
Spatially confined electrochemical conversion of metal–organic frameworks into metal-sulfides and their in situ electrocatalytic investigation via scanning electrochemical microscopy
CITATION: Itamar Liberman, Wenhui He, Ran Shimoni, Raya Ifraemova and Idan Hod
Spatially confined electrochemical conversion of metal–organic frameworks into metal-sulfides and their in situ electrocatalytic investigation via scanning electrochemical microscopy
Authors: Itamar Liberman, Wenhui He, Ran Shimoni, Raya Ifraemova and Idan Hod
Intermittent Contact Alternating Current Scanning Electrochemical Microscopy: A Method for Mapping Conductivities in Solid Li Ion Conducting Electrolyte Samples
CITATION: Samantha Catarelli, Daniel Lonsdale, Lei Cheng, Jaroslaw Syzdek, Marca Doeff
SCAN-Lab Technical Notes 16: Comparison of Saturated Calomel Electrode (SCE) and Silver/Silver Chlo-ride Electrode (Ag/AgCl) using the M470
Comparison of Saturated Calomel Electrode (SCE) and Silver/Silver Chlo-ride Electrode (Ag/AgCl) using the M470
Introducing the Microscopic Image Rapid Analysis (MIRA) software – Scanning Probes – Application Note 5
AN5. Introducing the Microscopic Image Rapid Analysis (MIRA) software. Scanning Probe Electrochemistry.
Mapping Electrochemical Heterogeneity at Iron Oxide Surfaces: A Local Electrochemical Impedance Study
CITATION: Marie Lucas and Jean-François Boily
Effect of physical ageing onto the water uptake in epoxy coatings
CITATION: Y Elkebir, S Mallarino, D Trinh, S Touzain
Learning center.
ac-, dc-, ic-, ic-ac, FB, GC… What does this SECM alphabet soup even mean?
A breakdown of the different techniques that make up SECM
SECM101: An Introduction to Scanning Electrochemical Microscopy
An introduction to Scanning Electrochemical Microscopy (SECM)
SECM101: What is Constant Distance (CD)-SECM?
Constant Distance (CD)-SECM is introduced in this BioLogic Learning Center article