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Selioutski, Olga

https://orcid.org/0000-0002-5477-527X

Mayo Clinic

Stony Brook University

Citations 9

American Clinical Neurophysiology Society Technical Standards for Performing Intraoperative Electrocorticography
Husain, Aatif, Tatum, William, Gavvala, Jay R. , Inati, Sarah, Jacobs, Julia, Gloss, David , Alkawadri, Rafeed , Nordli, Doug, Templer, Jessica W. , Keller, Crystal M., Nuwer, Marc, Gavvala, Jay R , Templer, Jessica W , Schuele, Stephan , Selioutski, Olga , Sinha, Saurabh R. , Nuwer, Marc R.

Journal of Clinical Neurophysiology | December 29, 2025 | Volume: 43 | Issue: 2 | Pages: 101-109

10.1097/wnp.0000000000001233 Get It

Purpose: These consensus guidelines by the American Clinical Neurophysiology Society (ACNS) describe best practices for performing intraoperative Electrocorticography (ioECoG) using subdural or depth electrodes for adult and pediatric population. Methods: A group of ACNS members was convened to develop technical standards for performing ioECoG. PubMed searches were performed to identify pertinent peer-reviewed literature. Sections were assigned to individual authors based on expertise. Consensus was achieved during subsequent group discussions to develop evidence-based recommendations to the extent possible. Recommendations: Communication between the neurosurgical and the neurophysiology teams is essential in verifying and documenting the location of the contacts. Most authors recommend ioECoG recordings of at least 5 and up to 30 minutes in duration to allow for sufficient observation of interictal activity. The anesthesia should be adjusted to allow continuous EEG activity and to minimize the effect on the ioECoG recording during general anesthesia or awake surgery. The surgical procedure and technical report should separate ioECoG recordings to define the irritative zone from ioECoG findings during functional mapping. The neurophysiology physician’s physical presence in the operating room is required in the definition of the services. Conclusion: These consensus guidelines by the ACNS describe best practices for performing intraoperative ECoG based on published literature and expert consensus.
Revised Process for ACNS Guidelines Development
Andrade, Edgard , Galloway, Gloria, Hyslop, Ann , Selioutski, Olga , Arnold, Susan T., Drislane, Frank W. , Gloss, David , Marashly, Ahmad , Nuwer, Mark R., Sabau, Dragos , Shahid, Asim, Tatum, William O. , Vengrow, Michael, Wusthoff, Courtney J. , Quraishi, Imran H , Andrade, Edgard , Wusthoff, Courtney J , Selioutski, Olga , Hyslop, Ann , Sinha, Saurabh Kumar , Arnold, Susan T., Arya, Ravindra , Bagić, Anto , Hani, Abeer J. , Kobayashi, Eliane , Park, Jun , San‐Juan, Daniel , Shahid, Asim, Skjei, Karen L. , Vengrow, Michael

Journal of Clinical Neurophysiology | January 30, 2025 | Volume: 42 | Issue: 2 | Pages: 95-100

10.1097/wnp.0000000000001133 Get It

Summary: The development of clinical practice guidelines is an evolving field. In response to the need for consistent, evidence-based medical practice, the American Clinical Neurophysiology Society identified the need to update the Society's guideline development process. The American Clinical Neurophysiology Society Guidelines Committee created an action plan with the goal of improving transparency and rigor for future guidelines and bringing existing guidelines to current standards. This article provides an overview of the new American Clinical Neurophysiology Society standards for the creation of clinical guidance documents, including clinical guidelines, technical standards, and consensus statements. This process is rooted in the importance of clinical guidance documents and their significance in the context of current behests for updated standards for practicing clinical neurophysiology. The need and rationale for updating the guideline development process from its prior state were described. The updated American Clinical Neurophysiology Society categories for clinical guidance and recommendations were defined and compared. Finally, the new process is summarized, focusing on methodologies, authorship, and conflicts of interest.
Minimum Technical Requirements for Performing Ambulatory EEG
Tatum, William O. , Halford, Jonathan J. , Olejniczak, Piotr W., Selioutski, Olga , Grigg‐Damberger, Madeleine , Gloss, David , Acharya, Jayant N. , Tsuchida, Tammy N., Drislane, Frank W. , Halford, Jonathan J , Selioutski, Olga , Schuele, Stephan , Sinha, Saurabh R.

Journal of Clinical Neurophysiology | June 15, 2022 | Volume: 39 | Issue: 6 | Pages: 435-440

10.1097/wnp.0000000000000950 Get It

Summary: Ambulatory EEG (AEEG) devices offer portable, multichannel, digital EEG recording with or without video in the patient's natural environment. The technology applied for AEEG recording is like the technology for routine EEG and inpatient long-term video-EEG monitoring but designed to be compact and wearable. Computer-based AEEG technology is well-suited to digital recording, signal processing, and visual display. However, acquiring interpretable EEG outside of the hospital setting presents its own technical challenges. Published guidelines have established technical standards for performing routine EEG and inpatient video-EEG monitoring, but technical standards for AEEG are lacking. Therefore, this guideline provides minimal technical standards for the performance of AEEG which are essential to ensure the quality of studies for clinical and research practice. We expect these minimum standards to evolve over time with improved performance and advances in the technology.
American Clinical Neurophysiology Society Guideline 6: Minimum Technical Standards for EEG Recording in Suspected Cerebral Death
Sabau, Dragos , Sullivan, Lucy R., Das, Rohit , Selioutski, Olga , Drislane, Frank W. , Tsuchida, Tammy N., Tatum, William O. , Stecker, Mark M. , Selioutski, Olga , Das, Rohit R

The Neurodiagnostic Journal | January 4, 2017 | Volume: 56 | Issue: 4 | Pages: 276-284

10.1080/21646821.2016.1245575 Get It

American Clinical Neurophysiology Society Guideline 7: Guidelines for EEG Reporting
Tatum, William O. , Selioutski, Olga , Ochoa, Juan G. , Cheek, Janna, Drislane, Frank W. , Tsuchida, Tammy N., Clary, Heidi M. Munger , Selioutski, Olga

The Neurodiagnostic Journal | January 4, 2017 | Volume: 56 | Issue: 4 | Pages: 285-293

10.1080/21646821.2016.1245576 Get It

American Clinical Neurophysiology Society Guideline 6: Minimum Technical Standards for EEG Recording in Suspected Cerebral Death
Sabau, Dragos , Sullivan, Lucy R., Das, Rohit , Selioutski, Olga , Drislane, Frank W. , Tsuchida, Tammy N., Tatum, William O. , Stecker, Mark M, Stecker, Mark M. , Selioutski, Olga , Das, Rohit R

Journal of Clinical Neurophysiology | August 9, 2016 | Volume: 33 | Issue: 4 | Pages: 324-327

10.1097/wnp.0000000000000322 Get It

Summary: This revision to the EEG Guidelines is an update incorporating current EEG technology and practice. The role of the EEG in making the determination of brain death is discussed as are suggested technical criteria for making the diagnosis of electrocerebral inactivity.
American Clinical Neurophysiology Society Guideline 7: Guidelines for EEG Reporting
Tatum, William O. , Ochoa, Juan G. , Cheek, Janna, Drislane, Frank W. , Tsuchida, Tammy N., Selioutski, Olga , Clary, Heidi M. Munger

Journal of Clinical Neurophysiology | August 9, 2016 | Volume: 33 | Issue: 4 | Pages: 328-332

10.1097/wnp.0000000000000319 Get It

Summary: This EEG Guideline incorporates the practice of structuring a report of results obtained during routine adult electroencephalography. It is intended to reflect one of the current practices in reporting an EEG and serves as a revision of the previous guideline entitled “Writing an EEG Report.” The goal of this guideline is not only to convey clinically relevant information, but also to improve interrater reliability for clinical and research use by standardizing the format of EEG reports. With this in mind, there is expanded documentation of the patient history to include more relevant clinical information that can affect the EEG recording and interpretation. Recommendations for the technical conditions of the recording are also enhanced to include post hoc review parameters and type of EEG recording. Sleep feature documentation is also expanded upon. More descriptive terms are included for background features and interictal discharges that are concordant with efforts to standardize terminology. In the clinical correlation section, examples of common clinical scenarios are now provided that encourages uniformity in reporting. Including digital samples of abnormal waveforms is now readily available with current EEG recording systems and may be beneficial in augmenting reports when controversial waveforms or important features are encountered.