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The NeuroField Analysis Suite is to be used by qualified clinical professionals for the display and storage of electrical activity of a patient's brain, including the post-hoc statistical evaluation of the human electroencephalogram (EEG) and event-related potentials (ERP).

The NeuroField Analysis Suite is a Normalizing Quantitative Electroencephalograph (QEEG) Software that can (1) execute EEG analysis and (2) conduct ERP test and ERP analysis. The NeuroField Analysis Suite is Software as a Medical Device (SaMD). The NeuroField Analysis Suite consists of two modules, the NF EEG Analysis Module and the NF ERP Module. The NF EEG Analysis Module is a separate analysis module that integrates with the Q21 EEG system by adding "Analysis", "Report", and "Tools" menu items and toolbars. It performs real-time and offline analysis functions and displays analysis results in separate windows in the UI, which can be accessed via the "Analysis" and "Reports" menu items. The NF ERP Module is a separate evoked response potential (ERP) module that can control and get data from the Q21 EEG system and performs typical ERP functions like stimulus presentation, EEG epoching, epoch averaging, reaction time, and ERP display. The NF ERP Module is a separate stand-alone application.

The iSyncBrain-C is to be used by qualified medical or qualified clinical professionals for the statistical evaluation of the human electroencephalogram (EEG) in patients aged 4.5 to 81 years.

iSyncBrain-C is a software program for the post-hoc statistical analysis of the human electroencephalogram (EEG). EEG signals can be measured by various EEG equipment, and the measured EEG data is saved in EDF files. iSyncBrain-C can upload, and analyze these EDF files, and personal information or results are automatically stored in AWS (Amazon Web Serve). The analysis consists of the Fast-Fourier Transformation (FFT) of the data to extract the spectral power for each of the designated frequency bands (e.g., Delta, Theta, Alpha, Alpha2, Beta2, Beta3, Gamma) and frequency information from the EEG. These analysis results are displayed in statistical tables and topographical brain maps of absolute and relative power, power ratio, ICA components, power spectrum, occipital alpha peak, source ROI power(sLORETA) & connectivity(iCoh). All EEG devices has its own frequency characteristics which should be included for any data comparisons coming from different devices. iSyncBrain-C has an EEG amplifier matching module where frequency spectra are adjusted with calibration table between database amplifier and recording amplifier. In all over 33,000 measures are derived for comparison against carefully constructed and statistically controlled age-regressed, normative database in which the variables have been transformed and validated for their Gaussian distribution. Each variable extracted by the analysis is compared to the database using parametric statistical procedures that express the differences between the subject and an appropriate sex/aqematched reference group in the form of z-scores.

The BrainView QEEG Software Package is to be used by qualified medical or clinical professionals for the statistical evaluation of the human electroencephalogram (EEG).

BrainView QEEG Software Package is a software program for the post-hoc statistical analysis of the human electroencephalogram (EEG). EEG recorded on a separate device (i.e., the host system) is transferred to the BrainView QEEG software package for display and user-review. The device herein described consists of a set of tables that represent the reference means and standard deviations for representative samples. These tables are implemented as computer files that provide access to the exact tabular data resource for use by software that uses the tables as an information resource. The system requires that the user select reliable samples of artifact-free, eyes-closed or eyes open, resting digital EEG for purposes of analysis. Analysis consists of the Fast-Fourier Transformation (FFT) of the data to extract the spectral power for each of the designated frequency bands (e.g. delta, theta, alpha, and beta), and frequency information from the EEG. The results of this analysis are then displayed in statistical tables and topographical brain maps of absolute and relative power asymmetry, and coherence for 19 monopolar and 171 selected bipolar derivations of the EEG. In all over 4,000 measures are derived for comparison against carefully constructed and statistically controlled age-regressed, normative database in which the variables have been transformed and validated for their Gaussian distribution. Each variable extracted by the analysis is compared to the database using parametric statistical procedures that express the differences between the patient and an appropriate age-matched reference group in the form of z-scores.

The BNA™ Platform is to be used by qualified medical professionals for the post-hoc statistical analysis of the human electroencephalogram ("EEG"), including event-related potentials ("ERPs'). This device is indicated for use in individuals 12 to 85 years of age. The BNA™ Platform is to be used with the Auditory Oddball, Visual Go No-Go (age range of 25 to 85 years), and Eyes-Closed tasks.

The BNATM Platform is intended for the post-hoc statistical analysis of the human electroencephalogram ("EEG"), utilizing both resting-state EEG and Event-Related Potentials ("ERP") in a patient's response to outside stimuli during various states of alertness, disease, diagnostic testing, treatment, surgery, or drug related dysfunction. An Event-Related Potential (or "evoked response") is an electrical potential recorded from the nervous system following the presentation of a stimulus (e.g., as part of a cognitive task). An ERP signal consists of typical ERP components - positive or negative voltage spatiotemporal peaks within the ERP waveform that are measured within one second post-stimulus presentation. The BNATM Platform is intended to analyze EEG data recorded at rest and during the performance of two conventionally used ERP tasks, the Auditory Oddball (AOB) and the Visual Go No-Go (VGNG). The EEG is recorded continuously while the patient is at rest with eyes-closed (hereby Eyes-Closed) or performs one of the ERP tasks (hereby ERP tasks). The acquisition site is asked to provide reliable samples of artifact-free digital EEG for purposes of analysis. After the recording, the artifact-free EEG data is imported into the BNATM Platform and is automatically analyzed by the algorithm and the results of the processed data are compiled into individualized Reports: - . ERP Report - Behavioral Report ● - . Summary Report - Resting-State EEG Report ● Scores are presented as Z-Scores based on comparing the patient to an age-matched relevant reference group based on elminda's normative database. This presentation expresses the differences between the patient and the reference group. The BNA™ Reports are intended to be used by clinicians to enable the evaluation of the patient's brain activity during a specific task compared to an age-range matched reference group. The system consists of the following components: a computer environment; EEG data input software algorithms for BNA™ calculations; a report generator and a functionality for data transfer and storage. The device processes and analyzes data received from a dedicated, commercially available, and FDA cleared EEG system, which complies with the BNATM Platform specifications.

The system is intended to statistically evaluate brain activity reflected in a broad band of high-gamma frequencies in the human electroencephalogram (EEG). These measures should always be interpreted in conjunction with review of the original EEG waveform. cortiQ PRO is intended for the evaluation of intracranial EEG recorded with the g.Hlamp.

cortiQ PRO is a system that uses g.Hlamp to map high-gamma broad band brain activity while running an experimental paradigm. The software helps to identify electrode positions coding differences in brain activity by means of experimental paradigm. cortiQ PRO performs the signal analysis in real-time and compares the highgamma broad band activity during specific tasks. Then it performs a statistical analysis and visualizes electrodes coding the information that are statistically significant. It is abstracted from technical details of data acquisition, channel order and signal processing assuring robust and efficient measurements. cortiQ PRO reads in the digital data from the g.Hlamp amplification system (1200 Hz sampling frequency, up to 256 channels) via USB into the processing computer. The data is acquired without bandpass and notch filtering and without bipolar derivation. The software allows one to select the channels that should be acquired and stores the raw data together with header information for later off-line analysis. Raw data is visualized on a raw data scope to inspect the data quality. The scope allows scaling of the data in amplitude and time. Furthermore the software allows scaling of all the channels to the same amplitude to make the interpretation easier. In the scope, it is possible to select a new ground and reference channel and to exclude a channel from the processing (if the data quality is bad). The raw data scope filters the data with a high-pass filter to remove DC-offsets for optimal visualization. cortiQ PRO allows the operator to select an experimental paradigm that instructs the patient to perform certain tasks. The instructions are presented on a patient computer screen or are given via a speaker. The user can select, start and terminate the experimental paradigm. Additionally, the number of repetitions can be selected. A dedicated paradigm editor creates new paradigm files or modifies existing paradigms. The rapid cortical mapping functions perform a common average reference (CAR) of all the active channels to remove common mode signals such as power line interference. Then the module calculates the high-gamma activity in certain frequency ranges for the different tasks and compares the high-gamma activity to those of another task according to the selected paradigm. Then a statistical analysis is performed and significant activation is plotted as bubble on the defined electrode position in order to identify important regions. When the mapping has ended, cortiQ PRO automatically generates a mapping report containing the montage definition, the paradigm definition, and the mapping results. This report is stored as pdf and can be printed. The mapping result is also stored for later analysis. cortiQ PRO allows the operator to define montage definition files in the montage creator by loading predefined electrode grids from different manufacturers. Each grid has a certain number of channels. The montage creator allows the operator to assign a patient's name and date of birth, and a montage name to each file. Furthermore, it allows the operator to assign a grid name to each electrode grid. The grids can be placed on different background images to make the location interpretation easier. Electrodes from a grid can be disabled, used as reference or as ground electrodes. The grids can be resized or rotated. The montage creator assigns also the electrode grids automatically to the amplifier inputs channels and creates a report with the channel definition. The results can be stored to be modified later. The report is stored as pdf and can be printed. cortiQ PRO comes with an installs the software under Windows. A hardlock is required to start the mapping software. The mapping system comes with Instructions for use and a training program.

The qEEG-Pro System is to be used by qualified clinical professionals for the statistical evaluation of the human electroencephalogram (EEG).

qEEG Pro Database (QPD) is a software program for the post-hoc statistical analysis of the human electroencephalogram (EEG). EEG recorded on a separate device (i.e., the host system) is transferred to the QPD for display and user-review. The device herein described consists of a set of tables that represent the reference means and standard deviations for representative samples. These tables are implemented as computer files that provide access to the exact tabular data resource for use by software that uses the tables as an information resource. The system requires that the user select reliable samples of artifact-free, eyes-closed or eyes open, resting digital EEG for purposes of analysis. Analysis consists of the Fast-Fourier Transformation (FFT) of the data to extract the spectral power for each of the designated frequency bands (e.g. delta, theta, alpha, and beta), and frequency information from the EEG. The results of this analysis are then displayed in statistical tables and topographical brain maps of absolute and relative power, power asymmetry, and coherence for 19 monopolar and 171 selected bipolar derivations of the EEG. In all over 5,000 measures are derived for comparison against carefully constructed and statistically controlled age-regressed, normative database in which the variables have been transformed and validated for their Gaussian distribution. Each variable extracted by the analysis is compared to the database using parametric statistical procedures that express the differences between the patient and an appropriate age-matched reference group in the form of z-scores.

The BNA™ Analysis System is to be used by qualified medical professionals for the posthoc statistical analysis of the human electroencephalogram ("EEG"), utilizing evoked response potentials ("ERP"). This device is indicated for use in individuals 14 to 24 years of age. The BNA™ Analysis System is to be used with the auditory oddball task only.

The BNA Analysis System is an accessory to EEG. The BNA Analysis System is a software device that is used to analyze EEG-ERP data with regards to conventional, well established characteristics of amplitude and latency. Statistical analysis is performed to express the differences between the patient (individual) and a task-matched reference group in the indicated age group in the form of Z-scores. The BNA Analysis System report displays the test results in the following format; (1) Test and Patient Information; (2) ERP waveforms; (3) Summarized patient results - Z-Score Tables, Z-Score Maps and BNA Composite Scores. BNA Composite Scores are a calculation of the global comparison of the individual to the normative group (RBNM) for the following well-established EEG-ERP components: amplitude and absolute time. These calculations are a measure of the overall similarity of the single subject EEG-ERP components to the EEG-ERP components of the normative group (RBNM) based on Z-scores. The BNA scores should not be used as stand-alone information: rather, such scores should complement all of the information included in the report, as well as the clinical evaluation.

The HBldb product is to be used by qualified medical professionals for the post-hoc statistical evaluation of the human electroencephalogram (EEG), utilizing evoked response potentials (ERP).

The Human Brain Index Software (HBldb) product is a software program for the post-hoc statistical analysis and comparison with a reference data (the Human Brain Index Reference Database (HBIRD)) of the human electroencephalogram (EEG) including spontaneous oscillations of the human brain potentials and event-related potentials (ERPs). The EEG is recorded on a separate device under the standardized HBIdb conditions and is transferred to the HBIdb in EDF+ format for - display . - . spectral analysis and - analysis of event-related potentials . - comparison of the gathered parameters against the Human Brain Index Reference Database . (HBIRD), and - compilation of a report. . Results of comparison of individual EEG/ERP parameters with the database are intended for use as an aid to diagnosis. No medication or treatment is applied based on this comparison alone. The results have to be considered only in conjunction with other clinical findings.

The BRC software product is to be used by qualified medical professionals for the posthoc statistical evaluation of the human electroencephalogram (EEG), utilizing evoked response potentials (ERP).

The BRC software product is composed of the following major components: BRC The DRC software produisition Software and the BRC Neuromarker Analysis Software. Neuromarker Data Acquisition Software is used to collect the data gathered at BRC I he Nedromancer Data requisition protocols and equipment are utilized at each nechsed laboratory to ensure uniformity of collected data. The data is then transmitted to the DRC Central Analysis Facility where the Neuromarker Analysis Software is used to DIC Central Interfall Pagainst the Brain Resource International Database (BRID). The process the gatibled and againta from approximately 2,400 normative (i.e., without a database Currently contains ada cohol abuse, or serious medical condition) participants. The results of the processed data is compiled into an individualized report called the NeuroMarker Report. The BRC Cognition Acquisition Software is one component of the BRC NeuroMarker The DRC Cognition Frequence is loaded on a computerized touchscreen system and used to gather cognitive patient performance information. This data is transmitted from used to gamer cogment person personal Analysis Facility for processing and formatting into report form (IntegNeuro Report). The BRC software product is to be used by qualified medical professionals for the posthoc statistical evaluation of the human electroencephalogram (EEG), utilizing evoked response potentials (ERP).

For clinical use the NeuroGuide Analysis system is to be used by qualified medical and qualified clinical professionals for the post-hoc statistical evaluation of the human electroencephalogram (EEG).

The NeuroGuide Analysis System (NAS) is a software program for the post-hoc statistical analysis of the human electroencephalogram (EEG). EEG recorded on a separate device (i.e., the host system) is transferred to the NAS for display and user-review. The system requires that the user select reliable samples of artifact-free, eyes-closed or eyes open, resting digital EEG for purposes of analysis. Analysis consists of the Fast-Fourier Transformation (FFT) of the data to extract the spectral power for each of the four primary frequency bands (delta, theta, alpha, and beta), and frequency information from the EEG. The results of this analysis are then subjected to univariate, bivariate, and multivariate statistical analyses and displayed in statistical tables and topographical brain maps of absolute and relative power, power asymmetry, and coherence for 19 monopolar and 171 selected bipolar derivations of the EEG. In all over 1,200 measures are derived for comparison against a carefully constructed and statistically controlled age-regressed, normative database in which the variables have been transformed and confirmed for their Gaussian distribution. Each variable extracted by the analysis is compared to the database using parametric statistical procedures that express the differences between the patient and an appropriate age-matched reference group in the form of Z-scores. Multivariate features are compared to the normative database using Gaussian Univariate and Multivariate Distance Statistics. The Gaussian multivariate Distance statistic controls for the interrelationship of the measures of brain cortical function in the feature set, and provides an accurate estimate of their difference from normal. The multivariate measures permit an evaluation of regional indices of brain function that reflect the perfusion fields of the brain. Extracted feature sets are further analyzed to determine if the pattern of 'hits' (statistically significant feature score values identified for the patient) are consistent with patterns of 'hits' identified in prior neuroguide evaluations of clinical patients with known disorders. A step-wise discriminate analysis program classifies the patient in terms of their similarity to known neuroguide-defined patterns of abnormality, providing a probability estimate of the patient's profile with the average profile of groups of individuals constituting the normative and clinical database. The discriminant classification program is restricted by confining potential outcomes to specific patient symptoms derived from the patient history profile. Established discriminant functions were evaluated through the use of Receiver Operating Characteristic (ROC) curves for their sensitivity and specificity. The outcome of the statistical analysis is presented in report form that includes (a) patient demographic and history information, (b) selected EEG epochs, (c) statistical tables of monopolar, bipolar, and multivariate extracted feature values, and topographical brain mans. This information is to be read and interpreted within the context of the current clinical assessment of the patient by the attending physician/clinician. The decision to accept or reject the results of the neuroguide analysis, and incorporate these results into their clinical appraisal of the patient, is dependent upon the judgment of the attending physician or clinician.