The phrase "accurate electrode" is correct and usable in written English.
It can be used in contexts related to electronics, physics, or medical devices where precision in measurement or function is important.
Example: "The researchers developed an accurate electrode to improve the reliability of their experiments."
Alternatives: "precise electrode" or "exact electrode".
Emerging white matter targets for DBS, like the DRT, will require improved three-dimensional (3D) reference maps of deep brain anatomy and structural connectivity for accurate electrode targeting.
The patch has characteristics that enable it to conform to variations in thoracic dimensions while retaining the ability of providing accurate electrode placement.
Prefabricated head implants (Pinnacle Inc., USA) ensured accurate electrode positioning and reliable, robust contacts.
For targeting, the feasibility of rapid and accurate electrode placement during real-time MR imaging has been demonstrated.
The sEMG signals were visually assessed prior to MVC testing using maximal effort MMT to ensure accurate electrode placement.
If this reasoning is correct, then the occurrence of a possible stun effect would not necessarily indicate accurate electrode placement within the PPN, nor necessarily portend benefit from stimulation.
For each patient, the skin on the electrode positions was prepared scrubbing with abrasive paste (EleFix) and then the silver EEG electrodes dipped in electroconductive paste (Elefix) were placed by an EEG expert to ensure accurate electrodes positioning for each subject.
Development of the model requires accurate mapping of electrode and muscle stimulation sites, the capability to selectively activate muscles to produce graded contractions of sufficient strength, stable anchoring of the implanted electrode within the muscles and stable performance with functional reliability over several weeks of the therapy window.
These prerequisites include (1) easy accurate application of electrodes; (2) using an optimally reduced subset of electrodes to minimize electrode application times without compromising the ability to detect cerebral dysfunction; (3) that the microEEG reliably records clinically valid EEGs in the electrically noisy environment of the ED.
There may be clinical implications for therapeutic interventions that require accurate placement of electrodes such as biofeedback.
The additional advantages of open and laparoscopic approaches are the accurate placement of electrodes and the possible treatment of tumors in percutaneously inaccessible areas of the liver and tumors in close proximity to or invading the adjacent organs [ 6].
