Connect the Study
Bring current and prior imaging into a unified patient context through DICOM/PACS-oriented workflows.

Every pixel tells a story, but interpretation depends on context. Neurospace brings structural imaging, function, connectivity, clinical information, and prior studies into one spatial workspace designed to help neuroradiologists see beyond the grayscale without removing the physician from the decision.
Neuroradiology is rarely a single-image problem. Neurospace is designed around the complete interpretive path—from receiving the study to communicating a clinically useful conclusion—while preserving existing imaging infrastructure.
Bring current and prior imaging into a unified patient context through DICOM/PACS-oriented workflows.
Use the Neurospace Intelligence Layer to organize structural, functional, metabolic, and connectivity information as complementary patient-specific evidence rather than isolated exams.
Apply AI-assisted pattern recognition, segmentation support, quantitative analysis, and advanced visualization as inspectable decision support around the radiologist’s interpretation.
Relate imaging findings to neurological presentation, anatomy, function, pathways, and longitudinal change with contextual relationships prioritized for expert review.
Structure findings, measurements, key images, and 3D views into a report-ready clinical narrative connected to PACS.
A lesion may be visible on one acquisition, characterized by another, and clinically meaningful only when function or connectivity is considered. Neurospace organizes these layers around the same patient anatomy while its Intelligence Layer helps synthesize relevant multimodal relationships for expert review—without removing access to the underlying source data or the radiologist’s control.
Neurospace is designed to place neurological presentation beside the imaging rather than treating those inputs as separate worlds. The Intelligence Layer can support anatomical-functional correlation, pathway relationships, quantitative comparison, and contextual prioritization. The goal is not to generate an autonomous conclusion; it is to make the relevant relationships easier for the neuroradiologist to inspect, challenge, and communicate.
Three-dimensional visualization is most useful when it clarifies a clinical relationship. Neurospace converts selected imaging data into patient-specific spatial views that can support interpretation, multidisciplinary review, planning discussions, education, and patient communication.
Transform segmented structures and pathology into spatial views that preserve their relationship to the original imaging.
Review tractography in relation to lesion location, cortical anatomy, and other patient-specific structures.
Move from conventional slice review into fused spatial context while retaining access to the underlying source datasets.
Give surgeons, oncologists, neurologists, trainees, and other collaborators a common visual representation of the same case.
Neurospace is positioned as an intelligence layer around existing imaging infrastructure—not a demand to replace it. AI-assisted organization can help carry measurements, key findings, longitudinal change, relevant images, and structured content into a report-ready workflow, while the radiologist authors, verifies, edits, and owns the final interpretation.
The value of neuroradiology extends beyond the reading room. Neurospace is designed so the same patient-specific imaging context can move into neurosurgical planning, functional review, radiation oncology, education, and remote multidisciplinary discussion without being reduced to disconnected screenshots.
Bring structural, functional, metabolic, and connectivity data into one patient-specific interpretive context so the radiologist can evaluate relationships across modalities rather than reconstructing them mentally across disconnected viewers.
Support measurement, comparison, change detection, and quantitative review across current and prior studies through Artificial Intelligence, with computational outputs presented as evidence to inspect rather than conclusions to accept blindly.
Relate the observed finding to neurological presentation, eloquent anatomy, functional activation, and white-matter pathways where those relationships are clinically relevant.
Assist segmentation of relevant anatomy and pathology to accelerate creation of reviewable 3D structures, spatial measurements, and downstream visualization without removing clinician verification.
Help surface the findings, changes, measurements, pathway relationships, and case details most relevant to the current clinical question so attention is directed without dictating the interpretation.
Organize key images, measurements, clinical correlation, longitudinal comparison, and report components into a coherent draft structure that remains editable, verifiable, and owned by the radiologist.