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Multiclamp 700a and 700b

Manufactured by Molecular Devices

The Multiclamp 700A and 700B are versatile, high-performance electrophysiology amplifiers designed for intracellular recordings from a wide range of cell types. These amplifiers provide precise, low-noise signal acquisition and amplification, enabling researchers to study the electrical properties of cells with high fidelity.

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2 protocols using multiclamp 700a and 700b

1

Patch-Clamp Recording of Isolated Cardiomyocytes

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Isolated LV myocytes were placed in a bath on the stage of an IX51, IX53, and IX71 microscopes for patch-clamp measurements11 (link)12 (link)32 (link)55 (link)56 (link)66 (link). Experiments were conducted at room temperature. Data were acquired by means of the whole-cell patch-clamp technique in voltage- and current-clamp modes using Multiclamp 700A and 700B, and Axoclamp 900A amplifiers (Molecular Devices). Electrical signals were digitized using 250 kHz 16-bit resolution A/D converters (Digidata 1322, 1440A, and 1550, Molecular Devices) and recorded using pCLAMP 9.0 and 10 software (Molecular Devices) with low-pass filtering at 2 kHz. Membrane capacitance (Cm) was measured in voltage-clamp mode using a 5 mV voltage step and pCLAMP software algorithm. For each cell, current density was obtained by dividing transmembrane currents recorded in voltage-clamp by the measured Cm, providing a normalization of ionic currents with respect to cell size. Current density was expressed in pA pF−1 (refs 11 (link), 12 (link), 32 (link), 55 (link), 56 (link)). Pipettes were pulled by means of a vertical (PB-7, Narishige), or horizontal (P-1000, Sutter Instrument) glass microelectrode pullers; when filled with intracellular solution pipettes had a resistance of 1–2 MΩ.
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2

Patch-Clamp Measurements of Isolated LV Myocytes

Check if the same lab product or an alternative is used in the 5 most similar protocols
Isolated LV myocytes were placed in a bath on the stage of an IX51, IX53, and IX71 (Olympus) microscopes for patch-clamp measurements11 (link),12 (link),32 (link),55 (link),56 (link),66 (link). Experiments were conducted at room temperature. Data were acquired by means of the whole-cell patch-clamp technique in voltage- and current-clamp modes using Multiclamp 700A and 700B, and Axoclamp 900A amplifiers (Molecular Devices). Electrical signals were digitized using 250 kHz 16-bit resolution A/D converters (Digidata 1322, 1440A, and 1550, Molecular Devices) and recorded using pCLAMP 9.0 and 10 software (Molecular Devices) with low-pass filtering at 2 kHz. Membrane capacitance (Cm) was measured in voltage-clamp mode using a 5 mV voltage step and pCLAMP software algorithm. For each cell, current density was obtained by dividing transmembrane currents recorded in voltage-clamp by the measured Cm, providing a normalization of ionic currents with respect to cell size. Current density was expressed in pA/pF11 (link),12 (link),32 (link),55 (link),56 (link). Pipettes were pulled by means of a vertical (PB-7, Narishige), or horizontal (P-1000, Sutter Instrument) glass microelectrode pullers; when filled with intracellular solution pipettes had a resistance of 1–2 MΩ.
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