Waveform & Radiomics Analysis
Transforming high-dimensional physiological signals and medical imaging data into quantitative, clinically meaningful insights.
Aganitha’s Quantitative Imaging Across Human and Preclinical Models
Physiological waveform and imaging data span both clinical (human) and preclinical (animal) research, but differ significantly in structure, scale, and interpretation. Variations in heart rate, neural dynamics, and signal morphology require species-specific approaches to preprocessing, feature extraction, and event detection. Similarly, preclinical imaging often achieves higher resolution and sensitivity, while clinical workflows prioritize standardization, safety, and population variability.
Aganitha’s pipelines are designed to account for these differences while maintaining analytical consistency. We enable robust human and animal waveform analysis, supporting both within-species interpretation and cross-species comparability essential for translational research.
By integrating temporal waveform analytics with radiomics-based imaging features, we deliver multi-scale phenotyping — linking physiological signals with structural insights to support cohort analysis, longitudinal modeling, and preclinical-to-clinical translation.
1. Waveform analysis
Physiological signals – from heart rhythms to brain waves to muscle activity – carry dense temporal information. Aganitha’s waveform pipelines preprocess, segment, and classify these 1D time-series signals to extract clinically meaningful features in real time or from archived recordings.
ECG analysis
EEG analysis
EMG analysis
Surface and intramuscular EMG processing – burst detection, gesture classification (open/fist/grip/point), motor unit action potential analysis, muscle fatigue quantification, and onset detection.
What Aganitha delivers
- We focus on transforming time-series physiological signals such as EEG, ECG, and EMG into structured, interpretable insights through robust, multi-scale analytical pipelines.
- We perform signal preprocessing, feature extraction, and statistical modeling to capture both rapid events and sustained activity patterns, enabling automated detection and characterization of clinically relevant events such as seizures or arrhythmias, including their onset, duration, and intensity.
- Our approach incorporates temporal modeling to uncover cyclic and longitudinal patterns, alongside phenotype segmentation that converts continuous signals into biologically meaningful states.
- Extending beyond individual samples, we enable cohort-level comparison, stratification, and longitudinal disease modeling, delivering quantitative phenotypes and decision-ready insights that support preclinical and clinical research.
3. Radiomics
Radiomics converts 3D volumetric scans into hundreds of quantitative biomarkers — shape, texture, intensity, and wavelet features — that are invisible to the naked eye. Aganitha applies this to MRI, PET/CT, and multimodal fusion workflows for tumor phenotyping, treatment response prediction, and survival modeling.
PET/CT radiomics
X-ray radiomics
Live-cell imaging analysis for organoid growth kinetics, toxicity screening, motility and tracking, and spheroid morphometry – with optional virtual H&E transformation from label-free images.
MRI radiomics
Ultrasound analysis
What Aganitha Delivers
Challenges in manufacturing rare disease treatments have spurred innovation, resulting in cost-effective processes that benefit rare and common disease treatments
Why Aganitha
The Aganitha Advantage
Biology-First AI
Our models are designed with domain expertise, trained and validated by scientists who understand the biological context, not just the pixel statistics.
2D to 3D Native
Native support for 2D and 3D imaging modalities, including organoid and tissue section analysis.
Label-Free Intelligence
Brightfield and virtual staining pipelines reduce dependency on expensive fluorescent protocols while preserving analytical richness across phenotypic endpoints.
Multi-Modal Ready
Engineered for integration with genomics, transcriptomics, and proteomics, delivering a unified view of biological state that imaging alone cannot provide.