Integrated Electrodes
Integrated Electrodes - Related Videos
03:02
Standard Electrode Potentials
0 Views •
2020
On comparing the reactivity of silver and lead, it is observed that the two ionic species, Ag+ (aq) and Pb2+ (aq), show a difference in their redox reactivity towards copper: the silver ion undergoes spontaneous reduction, while the lead ion does not. This relative redox activity can be easily quantified in electrochemical cells by a property called cell potential. This property is commonly known as cell voltage in electrochemistry, and it is a measure of the energy which accompanies the charge...
10:51
Fabrication and Validation of an Organ-on-chip System with Integrated Electrodes to Directly Quantify Transendothelial Electrical Resistance
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Cited by 41 •
2017
This publication describes the fabrication of an organ-on-chip device with integrated electrodes for direct quantification of transendothelial electrical resistance (TEER). For validation, the blood-brain barrier was mimicked inside this microfluidic device and its barrier function was monitored. The presented methods for electrode integration and direct TEER quantification are generally applicable.
08:29
Fabrication of Amperometric Electrodes
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Cited by 8 •
2009
This protocol describes how to generate carbon fiber electrodes. The electrodes are subsequently used to detect catecholamine release from vesicles with carbon fiber amperometry.
07:12
Implanting an Electrode into the Subthalamic Nucleus of a Rat
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2025
The video demonstrates a procedure for implanting an electrode into the subthalamic nucleus of a rat to deliver electrical stimuli.
01:17
Electrodes: Overview
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2024
Electrochemical measurements are conducted in an electrochemical cell composed of various components that control and measure the current and potential. One fundamental component is electrodes, conductive materials that enable electron transfer reactions at their surfaces. There are two main types of electrodes in electrochemical cells. The first type, known as the working or indicator electrode, has a potential that is sensitive to the analyte's concentration and reacts to changes in the...
FAQs
At the tissue interface, ionic activity in biological tissue is converted into electronic signals that a connected system can sense, record, or process. The same general interface can also deliver controlled electrical currents in the opposite direction. This bidirectional capability allows one device platform to support both physiological measurement and therapeutic stimulation, depending on its medical purpose.
Integration can reduce the number of connections between the tissue-contacting interface and the rest of the device. It also supports measurements that remain localized near the tissue site, which can improve spatial control and device functionality. These advantages are especially relevant when a medical system must collect or deliver electrical information at a specific physiological location.
A more integrated arrangement brings tissue contact, electrical interaction, and supporting functions into a unified device rather than distributing them across as many separate connections. This design can make localized measurements and stimulation more practical while reducing connection requirements. The resulting system may support more compact medical tools, although its value depends on the intended sensing, recording, or treatment task.
The process begins at the tissue-contacting interface, where biological ionic activity is detected or controlled electrical current is delivered. For measurement, the interface produces an electronic representation that can be recorded or processed by integrated components. For stimulation, the pathway operates toward the tissue, allowing the system to apply electrical activity for a defined medical purpose.
Medical applications include neural interfaces, cardiac monitoring, biosensing, and electrotherapy. In neural and cardiac settings, the system can support localized electrical observation or intervention. Biosensing emphasizes acquiring physiological information, whereas electrotherapy emphasizes delivering electrical currents. These uses show how one integration strategy can address diagnosis, monitoring, and treatment-related needs across different tissues and clinical goals.
By combining close tissue interaction with sensing, recording, stimulation, or signal processing, these systems can gather localized physiological information or deliver controlled electrical intervention. That combination may support disease diagnosis and ongoing monitoring, while stimulation-oriented configurations can contribute to electrotherapy. In medicine, the approach is particularly relevant to neurological and cardiac disorders, where electrical activity has diagnostic or therapeutic importance.