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WaveNano Potentiostat

Part Number
AFTP2
WaveNano Potentiostat
Product Discontinued - Replacement Available
This product has been discontinued and can no longer be purchased. The product remains on our website for reference and a listing of its specifications. We suggest purchasing the replacement product, WavePico Wireless Electrochemical Workstation.
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WaveNano USB Potentiostat / Galvanostat
(measure currents from 1 mA down to 100 pA)

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Categories
Legacy Products > Legacy Electrochemical Workstations
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Specifications
References
Electrochemical Workstations
Electrode Connections
Reference electrode
Sense line with driven shield
Counter electrode
Drive line with grounded shield
Working electrode channels
1 Channel
Working electrode #1 (WK1)
Separate sense and drive lines, each with driven shield (current measurement via passive shunt)
Working electrode #2 (WK2)
N/A
Ground Connections
DC common (signal)
The DC Common is accessible via the black banana plug on the cell cable and the center pin on the Rotator Control Port
Chassis terminal
The metal case (chassis) is connected to the shield on the Cell Port and the shield on the USB Port.
Earth
No direct connection to earth ground is provided.
Measured Current (Potentiostatic Mode)
Current ranges (measured)
±1 mA, ±50 µA, ±2 µA, ±100 nA
Current resolution at each range (measured)
34 nA, 1.7 nA, 68 pA, 3.4 pA
Autoranging
Yes
Practical current range
20 pA to 1 mA
DC accuracy (current, measured)
±0.2% of setting; ±0.05% of range
DC leakage current
<10 pA at 25°C
AC accuracy (measured)
N/A
AC leakage current
N/A
ADC input
16 bits
Filters (for DC Experiments)
2.5 kHz
Applied Current (Galvanostatic Mode)
Current ranges (applied)
±1 mA, ±50 µA, ±2 µA, ±100 nA
Current resolution at each range (applied)
34 nA, 1.7 nA, 68 pA, 3.4 pA
DC accuracy (current, applied)
±0.2% of setting; ±0.05% of range
DAC output (current)
16 bits
Power Amplifier (Counter Electrode Amplifier)
Output current
±1 mA (maximum)
Short circuit current limit
undetermined
Compliance voltage
±12 V
Bandwidth
>20 kHz (on fastest speed setting)
Noise and ripple
undetermined
Slew rate/rise time
180 V/ms (on fastest speed setting)
Electrometer (Reference Electrode Amplifier)
Input impedance
>10¹⁴ in parallel with <10 pF
Input current
<2 pA leakage/bias current at 25°C
CMRR
> 50 dB at 10 kHz, 80 dB at 60 Hz
Electrometer bandwidth
> 800 kHz (3 dB)
Measured Potential
Potential ranges (measured)
±4 V
Potential resolution at each range (measured)
136 µV per ADC bit
DC accuracy (potential, measured)
±0.2% of setting; ±0.05% of range
ADC output
16 bits
Filters (for DC Experiments)
2.5 kHz
Applied Potential (Potentiostatic Mode)
Potential ranges (applied)
±4 V
Potential resolution at each range (applied)
125 µV per DAC bit
DC accuracy (potential, applied)
±0.2% of setting; ±0.05% of range
DAC output (potential)
16 bits
CV sweep rate (minimum)
10 µV/s
CV sweep rate (maximum)
10 V/s
Data Acquisition (for DC Experiments)
Clock resolution
500 ns (minimum time base)
Point interval
500 µs (minimum)
Synchronization
Simultaneous current and potential input
Raw point total
<10 million per experiment
Electrochemical Impedance Spectroscopy (EIS)
EIS capable
No
EIS frequency range
N/A
EIS frequency resolution
N/A
EIS frequency stability
N/A
Modes
N/A
Voltage excitation setpoint
N/A
Current excitation setpoint
N/A
Frequency sweeping
N/A
EIS accuracy
N/A
Rotator Control Connections
Rotator connector A
N/A
Rotator connector B
4-pin connector includes chassis ground, rotator enable output signal (+15 V tolerant), analog signal ground (DC Common), and analog rotation rate control output signal
Rate control signal
±10 V
Digital enable signal
Open drain with 4.7 kΩ pull up to +4 V (TTL compatible), open drain (TTL compatible)
Accessories
Dummy cell
External dummy cell included
Cell cable
HD-15 male connector to multiple banana plugs via shielded coaxial cables (included)
Auxiliary Connections
Connector C
N/A
Trigger input
N/A
Trigger output
N/A
Potential (E1) output
N/A
Current (I1) output
N/A
Potential (E2) output
N/A
Current (I2) output
N/A
Auxiliary analog input
N/A
Auxiliary analog output
N/A
WK1 input
N/A
WK2 input
N/A
General
Power input
5.0 VDC, 2 A (low voltage DC device)
Power supply input
100 to 240 VAC, 300 mA, 50 to 60 Hz
Power supply output
5 VDC, 2.0 A Power supply (included) has a C14 type input connector
Power cord
Various international cables sold separately (C13 type)
LED indicators
Power, USB, and status
Instrument dimensions
165 × 100 × 29 mm (6.5 × 3.9 × 1.1 in)
Workstation shipping dimensions
260 × 260 × 360 mm (10.2 × 10.2 × 14.2 in.)
Instrument weight
280 g (10 oz.)
Workstation shipping weight
1.4 kg (3 lb)
Temperature range
10°C - 40°C
Humidity range
80% RH maximum, non-condensing
Workstation modes
Potentiostat (POT), Galvanostat (GAL), Open-Circuit Potential (OCP), Zero-Resistance Ammeter (ZRA)
Communication
Interface
USB
Wireless capable
No
  1. Klementiev, A.D.; Whiteley, M. Development of a Versatile, Low-Cost Electrochemical System to Study Biofilm Redox Activity at the Micron Scale. Appl. Environ. Microbiol. 2022, 88, e00434-22.
  2. Kader, M.S.; Chusuei, C.C. A Cobalt (II) Oxide Carbon Nanotube Composite to Assay Dopamine. Chemosensors 2020, 8, 22.
  3. Sullivan, C.; Lu, D.; Brack, E.; Drew, C.; Kurup, P. Voltammetric codetection of arsenic(III) and copper(II) in alkaline buffering system with gold nanostar modified electrodes. Anal. Chim. Acta 2020, 1107, 63-73.
  4. Guan, B.; Hong, S.; Schulz, C.; Stanford, N. The Microstructure, Antimicrobial Properties, and Corrosion Resistance of Cu-Bearing Strip Cast Steel. Advanced Engineering Materials 2020, 22, 1901265.
  5. Pandey, R.R.; Guo, Y.; Gao, Y.; Chusuei, C.C. A Prussian Blue ZnO Carbon Nanotube Composite for Chronoamperometrically Assaying H2O2 in BT20 and 4T1 Breast Cancer Cells. Anal. Chem. 2019, 91, 10573-10581.
  6. McKenas, C.G.; Fehr, J.M.; Donley, C.L.; Lockett, M.R. Thiol–Ene Modified Amorphous Carbon Substrates: Surface Patterning and Chemically Modified Electrode Preparation. Langmuir 2016, acs.langmuir.6b02961.
  7. Cooper, P.K.; Li, H.; Rutland, M.W.; Webber, G.B.; Atkin, R. Tribotronic control of friction in oil-based lubricants with ionic liquid additives. Phys. Chem. Chem. Phys. 2016, 18, 23657-23662.
  8. Deb, A.K.; Das, S.C.; Saha, A.; Wayu, M.B.; Hensley Marksberry, M.; Baltz, R.J.; Chusuei, C.C. Ascorbic acid, acetaminophen, and hydrogen peroxide detection using a dendrimer-encapsulated Pt nanoparticle carbon nanotube composite. J. Appl. Electrochem. 2016, 46, 289–298.
  9. Zhang, K.; Hope, G.A.; Buckley, A.N.; Li, H. The interaction of sodium mercaptobenzothiazole with gold electrode and nanorod surfaces. Miner. Eng. 2016, 96, 135–142.
  10. Wayu, M.B.; King, J.E.; Johnson, J.A.; Chusuei, C.C. A Zinc Oxide Carbon Nanotube Based Sensor for In Situ Monitoring of Hydrogen Peroxide in Swimming Pools. Electroanalysis 2015, 27, 2552–2558.
  11. Cui, Z.; Chen, H.; Zhou, W.; Zhao, M.; DiSalvo, F.J. Structurally Ordered Pt3Cr as Oxygen Reduction Electrocatalyst: Ordering Control and Origin of Enhanced Stability. Chem. Mater. 2015, 27, 7538–7545.
  12. Mann, M.A.; Bottomley, L.A. Cyclic Square Wave Voltammetry of Surface-Confined Quasireversible Electron Transfer Reactions. Langmuir 2015, 31, 9511–9520.
  13. Morsing, T.J.; MacMillan, S.N.; Uebler, J.W.H.; Brock-Nannestad, T.; Bendix, J.; Lancaster, K.M. Stabilizing Coordinated Radicals via Metal–Ligand Covalency: A Structural, Spectroscopic, and Theoretical Investigation of Group 9 Tris(dithiolene) Complexes. Inorg. Chem. 2015, 54, 3660–3669.
  14. Li, S.; Nealson, K.H. Enriching distinctive microbial communities from marine sediments via an electrochemical-sulfide-oxidizing process on carbon electrodes.. Frontiers in Microbiology 2015, 6, 111.
  15. Carducci, T.M.; Blackwell, R.E.; Murray, R.W. Temperature Dependence of Solid-State Electron Exchanges of Mixed-Valent Ferrocenated Au Monolayer-Protected Clusters. J. Am. Chem. Soc. 2014, 136, 11182–11187.
  16. Li, H.; Wood, R.J.; Endres, F.; Atkin, R. Influence of alkyl chain length and anion species on ionic liquid structure at the graphite interface as a function of applied potential. J. Phys.: Condens. Matter 2014, 26, 284115.
  17. Yang, M.; Guarecuco, R.; DiSalvo, F.J. Mesoporous Chromium Nitride as High Performance Catalyst Support for Methanol Electrooxidation. Chem. Mater. 2013, 25, 1783–1787.
  18. Parisi, J.; Liu, Y.; Su, L.; Lei, Y. In situ synthesis of vertical 3-D copper-core/carbon-sheath nanowalls in microfluidic devices. RSC Adv. 2013, 3, 1388-1396.
  19. Cui, Z.; Yang, M.; DiSalvo, F.J. Mo2N/C hybrid material as a promising support for the electro-oxidation of methanol and formic acid. Electrochem. Commun. 2013, 33, 63-67.
  20. Yang, M.; Cui, Z.; DiSalvo, F.J. Mesoporous titanium nitride supported Pt nanoparticles as high performance catalysts for methanol electrooxidation. Phys. Chem. Chem. Phys. 2012, 15, 1088-1092.
  21. Cheng, S.; Rettew, R.E.; Sauerbrey, M.; Alamgir, F.M. Architecture-Dependent Surface Chemistry for Pt Monolayers on Carbon-Supported Au. ACS Applied Materials {&} Interfaces 2011, 3, 3948–3956.
  22. Schumacher, P.D.; Woods, N.A.; Doyle, J.L.; Schenk, J.O.; Clark, S.B. Cathodic Preconcentration of f-Elements on a Mercury Film Carbon Fiber Disk Microelectrode. Anal. Chem. 2011, 83, 4788–4793.
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